FTX Series

FTX Series

High Force Electric Actuator

 

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Hydraulic Cylinder Replacement

Hydraulic cylinders provide long life and high force in a small package size. The FTX Series high force electric actuators were designed specifically to allow migration from traditional hydraulic actuation to electric. Based on planetary roller screw technology, the FTX offers life and force density not attainable with more common ball screw based electric actuators. With up to 15X the life and 2X the force density, the roller screw based FTX is the right choice when migrating from hydraulic to electric actuation.

High Speed Electric Actuator Benefits

Rugged and Reliable

Hydraulic cylinders are commonly installed in harsh industrial settings. Therefore all FTX Series models are environmentally sealed to IP65. In addition, its planetary roller screw mechanism withstands significantly higher shock loads than weaker ball screw alternatives. Migrate to electric with confidence knowing the FTX Series is every bit as rugged and reliable as the hydraulics they are designed to replace.

Minimal Maintenance

More and more machine builders are looking to eliminate the mess and downtime associated with hydraulic fluid leaks. Electric actuation not only eliminates the problems associated with fluid leaks, it offers significantly higher levels of performance and flexibility than is possible even with servo-hydraulic solutions. FTX Series roller screw actuators allow machine builders to meet the ever-increasing performance demands of their customers while minimizing or eliminating the maintenance issues associated with traditional hydraulic solutions.

  • Significantly longer life
  • Less noise and energy consumption
  • Better accuracy and repeatability
  • Higher force
  • Smoother and more efficient motion

Quick Data
Models: FTX095, FTX125, FTX160, FTX215
Frame Sizes: 95 mm (3.74 in), 125 mm (5 in), 160 mm (6.3 in) 215 mm (8.5 in)
Screw Leads – mm (in) 5 (.20), 6 (.25), 10 (.39), 12 (.50), 20 (.79), 30, (1.18)
Stroke Lengths: 150, 300, 600, 900 mm (5.9, 11.8, 23.6, 35.4 in )
Linear Speed: up to 1500 mm/sec (59 in/sec)
Maximum Force: up to 178 kN (40,000 lbf)
Standards/Ratings: IP65S

High Speed Electric Actuator Industries & Applications

Successful applications for our FTX Series high force actuators include pressing, forming, and cutting. We have extensive experience in applying the right product and system to solve your most difficult manufacturing challenges. Our representatives can provide guidance to optimize system performance, eliminate premature wear, increase production, improve quality, and ultimately reduce costs. Below are some of the most common applications for the FTX Series. 

Automotive

  • Lift station
  • Automated assembly
  • Riveting / fastening / joining
  • Pressing

Entertainment / Simulation

  • Action simulators
  • Ride automation

Machining

  • Automated flexible fixturing
  • Machine tooling
  • Parts clamping
  • Precision grinders
  • Forming

Material Handling

  • Stamping
  • Indexing stages
  • Product sorting
  • Material cutting
  • Web guidance
  • Wire winding
  • Tube bending

Plastics

  • Mold locks
  • Part ejecting
  • Core pulling
  • Gate valve

Process Control

  • Conveyor diverters/gates
  • Precision valve control
  • Tension control

Sawmill / Forestry

  • Saw positioning
  • Fence positioning

Test

  • Test stands

FAQS

What current industries are using electric actuators to their benefit?

Several industries are utilizing electric actuators for their systems. For example, they are used in the automotive manufacturing world and robotic end tooling like weld guns, bearing presses, and powering position arms. Food processing equipment uses electric actuators for volumetric filling, cubing, and conveying and indexing product. The oil and gas industries are using electric actuators to replace hydraulic and pneumatic actuators due to their environmental benefits and more flexible and precise control. Both hydraulics and pneumatics have the potential for leakage, creating possible hazardous conditions (i.e., contamination or ignitable gas where methane is commonly used as the pneumatic fluid in the oil field). Electric actuators are increasingly being used to address all these concerns

What are the reasons for choosing electric actuators over hydraulic actuators?

Hydraulic actuators have some advantages in certain cases. They have a high power density, low component acquisition cost, moderate to high stiffness, high speed, and are a commonly used technology with several commercial outlets. However, in certain situations, hydraulic actuators can be less beneficial to a system. They have a moderate accuracy and repeatability without the additional help of extra tuning equipment. They also have intricate and complex installation and maintenance due to hydraulic pumps and tubing. Additionally, they have a high installation cost, low energy efficiency, large environmental impacts, and limited scalability and modularity. These are the cases where electric actuators offer a better solution.

What advancements in electric actuation have improved current processes?

Advances in electromechanical actuation include the pairing of a rotary servo motor coupled with rotary to linear mechanical transmission such as a roller screw. Roller screws have nuts running along a threaded rod that is geared with respect to each other and a nut housing much like a planetary gearbox. They provide more contact points than a ball screw, which means the applied force can be distributed over a larger surface area, resulting in lower stress levels and longer life. Rollers connect the nut with the screw, creating synchronized movement without recirculation allowing for higher rotational and linear speeds in applications where substantial force is required. There is also less vibration and noise at higher speeds due to the absence of recirculating balls. The high load capacity of roller screws allows a smaller, more lightweight package than a ball screw — and to further optimize weight and package size, newer models of electric actuators combine the roller screw and the servo motor into one unit. The integration of the motor creates a smaller package size and reduces the number of components. Direct driving of the roller screw mechanism eliminates backlash due to couplings and drive trains resulting in higher dynamic response and better performance. Along with the pairing of servo motors and roller screws, advances in brushless motors with feedback devices provide higher accuracy and repeatability. Traditional electric actuators typically use single or three-phase induction motors as their driving force. The problem with this design is when the actuator needs to change directions or start and stop, the operation is limited by motor temperature rise and therefore has limited duty cycles. Using a continuous-duty-cycle brushless dc motor along with the paring of roller screws helps solve this limitation. The feedback device allows for very precise control of both the position and speed of the actuator output rod

Related Industries

Automotive / Tire / Rubber

Entertainment

Food and Beverage

Forestry

Ground & Naval Defense

Oil and Gas

Plastics

Configuration Options

FTX Series Configuration Options

AAA = FTX Frame Size
BBBB = Stroke Length
CC = Screw Lead
D = Lubrication Type
E = Rod End Thread
FFF = Motor Mounting Configurations
GG = Motor Flange Code
HH = Motor Shaft Code
III = Motor Shaft Length
M = Mounting Options
N = Other Options

Mechanical Options

Adjustable External Travel Switche(s)

External travel switches indicate travel to the controller and are adjustable for either the home or end position.

Front Mounting Flange

Front mounting flange, includes thru-holes for face-mounting

Rear Clevis, Metric

Rear clevis mount, allows actuator to pivot while in motion

Rear Eye Mount

Rear eye mount, allows actuator to pivot while in motion

Rear Trunnion Mount

A rear trunnion is a cylindrical protrusion used as a mounting or pivoting point.

Lubrication Options

Grease

FTX Series actuators are shipped from the factory fully lubricated with high temperature grease. Exlar uses Mobilith SHC 220, a high performance, extreme-pressure grease.

Low Temperature Grease

For low temperature applications, the FTX Series uses Mobilgrease 28. This grease is suitable for actuator applications in ambient temperature ranges from -40°C to 85°C.

Oil

The FTX Series use Mobil SHC 626 for oil fill. The actuator is shipped empty and only receives a light oil coating from the factory for initial test. 

* Some options are not available with every configuration. For options or specials not listed above or for extended temperature operation, please consult Exlar Applications Engineering.

IP Ratings for Exlar Actuators

FTX Series

FTX095
Performance Specifications
 Printable View

FTX095 Specifications

    5 10 20
Screw Lead mm 5 10 20
  in 0.197 0.394 0.787
Maximum Force* kN 22.2 22.2 22.2
  lbf 5,000 5,000 5,000
Life at Maximum Force km 392 626 1440
  in x 10^6 15.4 24.6 56.7
C_a (Dynamic Load Rating) kN 95.2 88.3 92.5
  lbf 21,400 19,850 20,800
Maximum Input Torque Nm 22.1 44.3 88.5
  lbf-in 196 392 783
Max Rated RPM @ Input Shaft RPM 4,500 4,500 4,500
Maximum Linear Speed @ Maximum Rated RPM mm/sec 373 750 1,500
  in/sec 14.7 29.5 59.3
Friction Torque Nm 1.12 1.12 1.12
  lbf-in 10 10 10

Intermediate and custom stroke lengths are also available. Belt and pulley inertia varies with ratio and motor selection. Please contact your local sales representative. 
* Maximum allowable actuator-generated force that can be applied routinely. Exceeding this force may result in permanent damage to the actuator. For high force, short stroke applications, consult factory.

 

FTX095 Inertias

Base Unit Inertia Zero Stroke [kg-m^2 (lbf-in-sec^2)] Add per 25 mm [kg-m^2 (lbf-in-sec^2)]  
—5 mm Lead 8.27 x 10^-4 (7.32 x 10^-3) 2.19 x 10^-6 (1.94 x 10^-5)  
—10 mm Lead 8.33 x 10^-4 (7.37 x 10^-3) 2.42 x 10^-6 (2.14 x 10^-5)  
—20 mm Lead 8.57 x 10^-4 (7.58 x 10^-3) 3.31 x 10^-6 (2.93 x 10^-5)  
       
Inline Drive Inertia Inline Unit - w/Motor Coupling Inline Unit - w/Motor Coupling For Gearbox Mount Add per 25 mm
—5 mm Lead 9.27 x 10^-4 (8.20 x 10^-3) 1.09 x 10^-3 (9.62 x 10^-3) 2.19 x 10^-6 (1.94 x 10^-5)
—10 mm Lead 9.33 x 10^-4 (8.26 X 10^-3) 1.09 x 10^-3 (9.67 x 10^-3) 2.42 x 10^-6 (2.14 x 10^-5)
—20 mm Lead 9.57 x 10^-4 (8.47 x 10^-3) 1.12 x 10^-3 (9.89 x 10^-3) 3.31 x 10^-6 (2.93 x 10^-5)
       
Parallel Drive Inertia 1:1 Reduction 2:1 Reduction  
—5 mm Lead (zero stroke) 4.90 x 10^-3 (4.34 x 10^-2) 2.22 x 10^-3 (1.97 x 10^-2)  
——Add per 25 mm stroke 2.19 x 10^-6 (1.94 x 10^-5) 5.48 x 10^-7 (4.85 x 10^-6)  
—10 mm Lead (zero stroke) 4.91 x 10^-3 (4.34 x 10^-2) 2.23 x 10^-3 (1.97 x 10^-2)  
——Add per 25 mm stroke 2.42 x 10^-6 (2.14 x 10^-5) 6.04 x 10^-7 (5.34 x 10^-6)  
—20 mm Lead (zero stroke) 4.93 x 10^-3 (4.37 x 10^-2) 2.23 x 10^-3 (1.98 x 10^-2)  
——Add per 25 mm stroke 3.31 x 10^-6 (2.93 x 10^-5) 8.28 x 10^-7 (7.33 x 10^-6)  

 

FTX095 Weights

  kg lb
Base Actuator Weight (Zero Stroke) 10 21
Actuator Weight Adder (Per 25 mm of stroke) 0.39 0.87
Adder for Inline (excluding motor) 2.9 6.5
Adder for Parallel Drive (excluding motor) 13.1 28.9
Adder for Front Flange 1.9 4.2
Adder for Rear Clevis 5.3 11.7
Adder for Rear Eye 5.1 11.3
Adder for Rear Trunnion 1.9 4.3
Estimated Life Time Curves
 Printable View

ftx095-estimated-service-life

Ordering Guide
 Printable View

To order a product from Exlar, a unique model mask (identification number) is required. The model mask is a string of characters that identifies the model, size, and configuration alternatives.

FTX-Order-(1).jpg

Product Selection Guidelines

To facilitate your ordering process, feel free to print and complete this Exlar Application Worksheet, prior to contacting a Sales Representative in your area.

AAA = FTX Frame Size

095 = 95 mm (3.74 in)
125 = 125 mm (5 in)
160 = 160 mm (6.3 in)
215 = 215 mm (8.5 in)

BBBB = Stroke Length

0150 = 150 mm
0300 = 300 mm
0600 = 600 mm
0900 = 900 mm (FTX095, FTX125, FTX160)

CC = Screw Lead
FTX095 FTX125 FTX160 FTX215
05 = 5 mm 05 = 5 mm 06 = 6 mm 06 = 6 mm
10 = 10 mm 10 = 10 mm 12 = 12 mm 12 = 12 mm
20 = 20 mm   30 = 30 mm 30 = 30 mm
D = Lubrication Type

1 = Grease
2 = Oil
3 = Low-Temp Grease

E = Rod End Thread

A = Male, metric thread
B = Female, metric thread

FFF = Motor Mounting Configurations

NMT = None, base unit only
N10 = Inline, includes shaft coupling
P10 = Parallel, 1:1 belt reduction
P20 = Parallel, 2:1 belt reduction

Always discuss your motor selection with your local sales representative.

GG-HH-III = Access our Motor Decoder Here!

None, base unit only = 00-00-000

Motor-Decoder-01.jpg

 

M = Mounting Options

N = None
1 = Front Mounting Flange
5 = Rear Clevis1
7 = Rear Eye1
9 = Rear Trunnion

1= Not available with inline or NMT motor mount, contact your local sales representative.

N = Other Options

N = None

FTX125
Performance Specifications
 Printable View

FTX125 Specifications

    5 10
Screw Lead mm 5 10
  in 0.197 0.394
Maximum Force* kN 44.5 44.5
  lbf 10,000 10,000
Life at Maximum Force km 249.2 486.3
  in x 10^6 9.81 19.14
C_a (Dynamic Load Rating) kN 163.7 162.4
  lbf 36,800 36,500
Maximum Input Torque Nm 46.5 82.3
  lbf-in 412 728
Max Rated RPM @ Input Shaft
 		 RPM 3,500 3,500
Maximum Linear Speed @ Maximum Rated RPM mm/sec 292 583
  in/sec 11.5 23
Friction Torque Nm 2.23 2.23
  lbf-in 20 20

Intermediate and custom stroke lengths are also available. Belt and pulley inertia varies with ratio and motor selection. Please contact your local sales representative. 
* Maximum allowable actuator-generated force that can be applied routinely. Exceeding this force may result in permanent damage to the actuator. For high force, short stroke applications, consult factory.

 

FTX125 Weights

  kg lb
Base Actuator Weight (Zero Stroke) 21 47
Actuator Weight Adder (Per 25 mm of stroke) 0.84 1.85
Adder for Inline (excluding motor) 6.8 15
Adder for Parallel Drive (excluding motor) 25.6 56.5
Adder for Front Flange 3.6 7.9
Adder for Rear Clevis 6.5 14.3
Adder for Rear Eye 6.3 13.8
Adder for Rear Trunnion 3.1 6.8

 

FTX125 Inertias

Base Unit Inertia Zero Stroke [kg-m^2 (lb-in-s^2)] Add per 25 mm [kg-m^2 (lb-in-s^2)]  
—5 mm Lead 2.55 x 10^-3 (2.26 x 10^-2) 4.62 x 10^-5 (4.09 x 10^-4)  
—10 mm Lead 2.56 x 1^0-3 (2.27 x 10^-2) 4.65 x 10^-5 (4.12 x 10^-4)  
       
Inline Drive Inertia <32 mm Motor Shaft Diameter >32 mm Motor Shaft Diameter Add per 25 mm
—5 mm Lead 2.81 x 10^-3 (2.49 x 10^-2) 3.35 x 10^-3 (2.97 x 10^-2) 4.62 x 10^-5 (4.09 x 10^-4)
—10 mm Lead 2.82 x 10^-3 (2.50 x 10^-2) 3.36 x 10^-3 (2.98 x 10^-2) 4.65 x 10^-5 (4.12 x 10^-4)
       
Parallel Drive Inertia 1:1 Reduction 2:1 Reduction  
—5 mm Lead (zero stroke) 9.43 x 10^-3 (8.34 x 10^-2) 4.66 x 10-3 (4.12 x 10-2)  
——Add per 25 mm stroke 4.62 x 10^-5 (4.09 x 10^-4) 1.15 x 10^-5 (1.02 x 10^-4)  
—10 mm Lead (zero stroke) 9.44 x 10^-3 (8.35 x 10^-2) 4.66 x 10^-3 (4.13 x 10^-2)  
——Add per 25 mm stroke 4.65 x 10^-5 (4.12 x 10^-4) 1.16 x 10^-5 (1.03 x 10^-4)  
Estimated Life Time Curves
 Printable View

ftx125-estimated-service-life

Ordering Guide
 Printable View

To order a product from Exlar, a unique model mask (identification number) is required. The model mask is a string of characters that identifies the model, size, and configuration alternatives.

FTX-Order-(1).jpg

Product Selection Guidelines

To facilitate your ordering process, feel free to print and complete this Exlar Application Worksheet, prior to contacting a Sales Representative in your area.

AAA = FTX Frame Size

095 = 95 mm (3.74 in)
125 = 125 mm (5 in)
160 = 160 mm (6.3 in)
215 = 215 mm (8.5 in)

BBBB = Stroke Length

0150 = 150 mm
0300 = 300 mm
0600 = 600 mm
0900 = 900 mm (FTX095, FTX125, FTX160)

CC = Screw Lead
FTX095 FTX125 FTX160 FTX215
05 = 5 mm 05 = 5 mm 06 = 6 mm 06 = 6 mm
10 = 10 mm 10 = 10 mm 12 = 12 mm 12 = 12 mm
20 = 20 mm   30 = 30 mm 30 = 30 mm
D = Lubrication Type

1 = Grease
2 = Oil
​3 = Low-Temp Grease

E = Rod End Thread

A = Male, metric thread
B = Female, metric thread

FFF = Motor Mounting Configurations

NMT = None, base unit only
N10 = Inline, includes shaft coupling
P10 = Parallel, 1:1 belt reduction
P20 = Parallel, 2:1 belt reduction

Always discuss your motor selection with your local sales representative.

GG-HH-III = Access our Motor Decoder Here!

None, base unit only = 00-00-000

Motor-Decoder-01.jpg

 

M = Mounting Options

N = None
1 = Front Mounting Flange
5 = Rear Clevis1
7 = Rear Eye1
9 = Rear Trunnion

1= Not available with inline or NMT motor mount, contact your local sales representative.

N = Other Options

N = None

FTX160
Performance Specifications
 Printable View

FTX160 Specifications

    6 12 30
Screw Lead mm 6 12 30
  in 0.236 0.472 1.181
Maximum Force* kN 89 89 89
  lbf 20,000 20,000 20,000
Life at Maximum Force km 154.9 416.6 358.9
  in x 10^6 6.1 16.4 21.2
C_a (Dynamic Load Rating) kN 263.7 290.0 233.0
  lbf 59,275 65,200 52,400
Maximum Input Torque Nm 106 212 531
  lbf-in 940 1,880 4,699
Max Rated RPM @ Input Shaft
 		 RPM 2,000 2,000 2,000
Maximum Linear Speed @ Maximum Rated RPM mm/sec 201 401 1,000
  in/sec 7.9 15.8 39.0
Friction Torque Nm 4.54 4.54 4.54
  lbf-in 40 40 40

* Maximum allowable actuator-generated force that can be applied routinely. Exceeding this force may result in permanent damage to the actuator. For high force, short stroke applications, consult factory.

 

FTX160 Weights

  kg LB
Base Actuator Weight (Zero Stroke) 49 108
Actuator Weight Adder (Per 25 mm of stroke) 1.62 3.6
Adder for Inline (excluding motor) 14.2 31.5
Adder for Parallel Drive (excluding motor) 53.1 117.8
Adder for Front Flange 7.4 16.4
Adder for Rear Clevis 21.2 48.8
Adder for Rear Eye 22.4 49.7
Adder for Rear Trunnion 10.9 24.2

 

FTX160 Inertias

Base Unit Inertia Zero Stroke [kg-m^2 (lbf-in-sec^2)] Add per 25 mm [kg-m^2 (lbf-in-sec^2)]  
6 mm Lead 1.35 x 10^-2 (1.19 x 10^-1) 2.57 x 10^-4 (2.27 x 10^-3)  
12 mm Lead 1.35 x 10^-2 (1.20 x 10^-1) 2.58 x 10^-4 (2.28 x 10^-3)  
30 mm Lead 1.38 x 10^-2 (1.22 x 10^-1) 2.66 x 10^-4 (2.36 x 10^-3)  
Inline Drive Inertia <32 mm Motor Shaft Diameter >32 mm Motor Shaft Diameter Add per 25 mm
6 mm Lead 1.47 x 10^-2 (1.30 x 10^-1) 1.67 x 10^-2 (1.48 x 10^-1) 2.57x 10^-4 (2.27 x 10^-3)
12 mm Lead 1.47 x 10^-2 (1.30 x 10^-1) 1.68 x 10^-2 (1.49 x 10^-1) 2.58 x 10^-4 (2.28 x 10^-3)
30 mm Lead 1.50 x 10^-2 (1.33 x 10^-1) 1.71 x 10^-2 (1.51 x 10^-1) 2.66 x 10^-4 (2.36 x 10^-3)
Parallel Drive Inertia 1:1 Reduction 2:1 Reduction  
—6 mm Lead (zero stroke) 5.27 x 10^-2 (4.67 x 10^-1) 2.30 x 10^-2 (2.04 x 10^-1)  
——Add per 25 mm stroke 2.57 x 10^-4 (2.27 x 10^-3) 6.42 x 10^-5 (5.68 x 10^-4)  
—12 mm Lead (zero stroke) 5.28 x 10^-2 (4.67 x 10^-1) 2.30 x 10^-2 (2.04 x 10^-1)  
——Add per 25 mm stroke 2.58 x 10^-4 (2.28 x 10^-3) 6.45 x 10^-5 (5.71 x 10^-4)  
—30 mm Lead (zero stroke) 5.30 x 10^-2 (4.69 x 10^-1) 2.31 x 10^-2 (2.05 x 10^-1)  
——Add per 25 mm stroke 2.66 x 10^-4 (2.36 x 10^-3) 6.66 x 10^-5 (5.89 x 10^-4)  
Estimated Life Time Curves
 Printable View

Ordering Guide
 Printable View

To order a product from Exlar, a unique model mask (identification number) is required. The model mask is a string of characters that identifies the model, size, and configuration alternatives.

FTX-Order-(1).jpg

Product Selection Guidelines

To facilitate your ordering process, feel free to print and complete this Exlar Application Worksheet, prior to contacting a Sales Representative in your area.

AAA = FTX Frame Size

095 = 95 mm (3.74 in)
125 = 125 mm (5 in)
160 = 160 mm (6.3 in)
215 = 215 mm (8.5 in)

BBBB = Stroke Length

0150 = 150 mm
0300 = 300 mm
0600 = 600 mm
0900 = 900 mm (FTX095, FTX125, FTX160)

CC = Screw Lead
FTX095 FTX125 FTX160 FTX215
05 = 5 mm 05 = 5 mm 06 = 6 mm 06 = 6 mm
10 = 10 mm 10 = 10 mm 12 = 12 mm 12 = 12 mm
20 = 20 mm   30 = 30 mm 30 = 30 mm
D = Lubrication Type

1 = Grease
2 = Oil
​3 = Low-Temp Grease

E = Rod End Thread

A = Male, metric thread
B = Female, metric thread

FFF = Motor Mounting Configurations

NMT = None, base unit only
N10 = Inline, includes shaft coupling
P10 = Parallel, 1:1 belt reduction
P20 = Parallel, 2:1 belt reduction

Always discuss your motor selection with your local sales representative.

GG-HH-III = Access our Motor Decoder Here!

None, base unit only = 00-00-000

Motor-Decoder-01.jpg

 

M = Mounting Options

N = None
1 = Front Mounting Flange
5 = Rear Clevis1
7 = Rear Eye1
9 = Rear Trunnion

1= Not available with inline or NMT motor mount, contact your local sales representative.

N = Other Options

N = None

FTX215
Performance Specifications
 Printable View

FTX215 Specifications

    6 12 30
Screw Lead mm 6 12 30
  in 0.236 0.472 1.181
Maximum Force* kN 177.9 177.9 177.9
  lbf 40,000 40,000 40,000
Life at Maximum Force km 78.7 161.8 414.3
  in x 10^6 3.1 6.4 16.3
C_a (Dynamic Load Rating) kN 398 423 376
  lbf 89,500 95,200 84,700
Maximum Input Torque Nm 243 425 976
  lbf-in 2,148 3,760 8,642
Max Rated RPM @ Input Shaft
 		 RPM 1,750 1,750 1,750
Maximum Linear Speed @ Maximum Rated RPM mm/sec 175 351 875
  in/sec 6.9 13.8 34.4
Friction Torque Nm 5.65 5.65 5.65
  lbf-in 50 50 50

*Maximum allowable actuator-generated force that can be applied routinely. Exceeding this force may result in permanent damage to the actuator. For high force, short stroke applications, consult factory.

 

FTX215 Weights

  kg lb
Base Actuator Weight (Zero Stroke) 103 227
Actuator Weight Adder (Per 25 mm of stroke) 2.70 5.96
Adder for Inline (excluding motor) 38.6 85.1
Adder for Parallel Drive (excluding motor) 62.3 137.3
Adder for Front Flange 26.7 58.8
Adder for Rear Clevis 32.5 71.6
Adder for Rear Eye 32.5 71.6
Adder for Rear Trunnion 9.6 212

 

FTX215 Inertias

Base Unit Inertia Zero Stroke [kg-m^2 (lbf-in-sec^2)] Add per 25 mm [kg-m^2 (lbf-in-sec^2)]
  6 mm Lead Add per 25 mm, 6 mm Lead
Base Unit - Input Drive Shaft Only 4.25 x 10^2 (3.76 x 10^1) 8.00 x 10^4 (7.08 x 10^3)
  12 mm Lead Add per 25 mm, 12 mm Lead
Base Unit - Input Drive Shaft Only 4.26 x 10^2 (3.77 x 10^1) 8.02 x 10^4 (7.10 x 10^3)
  30 mm Lead Add per 25 mm, 30 mm Lead
Base Unit - Input Drive Shaft Only 4.31 x 10^2 (3.82 x 10^1) 8.15 x 10^4 (7.21 x 10^3)
     
Inline Drive Inertia 6 mm Lead Add per 25 mm, 6 mm Lead
Inline Unit - w/Motor Coupling 4.43 x 10^2 (3.92 x 10^1) 8.00 x 10^4 (7.08 x 10^3)
Inline Unit - w/Motor Coupling >55mm Shaft Diameter 6.15 x 10^2 (5.44 x 10^1) 8.00 x 10^4 (7.08 x 10^3)
  12 mm Lead Add per 25 mm, 12 mm Lead
Inline Unit - w/Motor Coupling 4.44 x 10^2 (3.93 x 10^1) 8.02 x 10^4 (7.10 x 10^3)
Inline Unit - w/Motor Coupling >55mm Shaft Diameter 6.16 x 10^2 (5.45 x 10^1) 8.02 x 10^4 (7.10 x 10^3)
  30 mm Lead Add per 25 mm, 30 mm Lead
Inline Unit - w/Motor Coupling 4.49 x 10^2 (3.98 x 10^1) 8.15 x 10^4 (7.21 x 10^3)
Inline Unit - w/Motor Coupling >55mm Shaft Diameter 6.21 x 10^2 (5.50 x 10^1) 8.15 x 10^4 (7.21 x 10^3)
     
Parallel Drive Inertia 6 mm Lead Add per 25 mm, 6 mm Lead
1:1 Reduction Parallel Belt Drive 8.73 x 10^2 (7.72 x 10^1) 8.00 x 10^4 (7.08 x 10^3)
2:1 Reduction Parallel Belt Drive 3.14 x 10^2 (2.78 x 10^1) 2.00 x 10^4 (1.77 x 10^3)
  12 mm Lead Add per 25 mm, 12 mm Lead
1:1 Reduction Parallel Belt Drive 8.74 x 10^2 (7.73 x 10^1) 8.02 x 10^4 (7.10 x 10^3)
2:1 Reduction Parallel Belt Drive 3.14 x 10^2 (2.78 x 10^1) 2.01 x 10^4 (1.78 x 10^3)
  30 mm Lead Add per 25 mm, 30 mm Lead
1:1 Reduction Parallel Belt Drive 8.79 x 10^2 (7.78 x 10^1) 8.15 x 10^4 (7.21 x 10^3)
Estimated Life Time Curves
 Printable View

FTX215 Estimated Service Life

Ordering Guide
 Printable View

To order a product from Exlar, a unique model mask (identification number) is required. The model mask is a string of characters that identifies the model, size, and configuration alternatives.

FTX-Order-(1).jpg

Product Selection Guidelines

To facilitate your ordering process, feel free to print and complete this Exlar Application Worksheet, prior to contacting a Sales Representative in your area.

AAA = FTX Frame Size

095 = 95 mm (3.74 in)
125 = 125 mm (5 in)
160 = 160 mm (6.3 in)
215 = 215 mm (8.5 in)

BBBB = Stroke Length

0150 = 150 mm
0300 = 300 mm
0600 = 600 mm
0900 = 900 mm (FTX095, FTX125, FTX160)

CC = Screw Lead
FTX095 FTX125 FTX160 FTX215
05 = 5 mm 05 = 5 mm 06 = 6 mm 06 = 6 mm
10 = 10 mm 10 = 10 mm 12 = 12 mm 12 = 12 mm
20 = 20 mm   30 = 30 mm 30 = 30 mm
D = Lubrication Type

1 = Grease
2 = Oil
​3 = Low-Temp Grease

E = Rod End Thread

A = Male, metric thread
B = Female, metric thread

FFF = Motor Mounting Configurations

NMT = None, base unit only
N10 = Inline, includes shaft coupling
P10 = Parallel, 1:1 belt reduction
P20 = Parallel, 2:1 belt reduction

Always discuss your motor selection with your local sales representative.

GG-HH-III = Access our Motor Decoder Here!

None, base unit only = 00-00-000

Motor-Decoder-01.jpg

M = Mounting Options

N = None
1 = Front Mounting Flange
5 = Rear Clevis1
7 = Rear Eye1
9 = Rear Trunnion

1= Not available with inline or NMT motor mount, contact your local sales representative.

N = Other Options

N = None

Resources

Actuation Solutions

Actuator Technical Tips

Brochures/Catalogs

Certifications

Electric Actuation Articles

FAQ

Literature

Manuals

Product Videos

White Papers

Worksheets

See All Resource Material for the Tritex II and other products in our Resource Library

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