X-ASR-E Series, Electric Actuators/Cylinders

Results:
4
Manufacturer
Series
Accuracy
Stroke Length
Speed
Features
Operating Temperature
Construction
Ingress Protection
Termination Style
Approval Agency
Voltage - Rated
Type
Load Force (Static)
Feedback Type
Motor Type
Load Force (Dynamic)
Duty Cycle
Acceleration
Gear Reduction Ratio
Results remaining4
Applied Filters:
X-ASR-E
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ImageProduct DetailPriceAvailabilityECAD ModelTypeIngress ProtectionVoltage - RatedTermination StyleOperating TemperatureApproval AgencyDuty CycleStroke LengthLoad Force (Static)ConstructionAccelerationGear Reduction RatioFeedback TypeMotor TypeAccuracyLoad Force (Dynamic)FeaturesSeriesSpeed
X-ASR050B050B-SE03D12-KX14P
Microscope Stage 50-50 mm knob
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Quantity
Contact us
PCB Symbol, Footprint & 3D Model
-
-
24 ~ 48VDC
Connector
0°C ~ 50°C
CE
-
1.969" (50.00mm)
-
Ball Screw
-
-
Incremental Encoder
Stepper
12µm
21.36lbf (95.0N)
Integrated Controller, Rotation Stage
X-ASR-E
3.35 in/s (85.0 mm/s)
X-ASR205B205B-SE03D12-KX14P
Microscope Stage 205-205 mm kno
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Quantity
Contact us
PCB Symbol, Footprint & 3D Model
-
-
24 ~ 48VDC
Connector
0°C ~ 50°C
CE
-
8.071" (205.00mm)
-
Ball Screw
-
-
Incremental Encoder
Stepper
±50µm
21.36lbf (95.0N)
Integrated Controller, Translation Stage
X-ASR-E
3.35 in/s (85.0 mm/s)
X-ASR305B305B-SE03D12-KX14P
Microscope Stage305-305 mm knob
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Quantity
Contact us
PCB Symbol, Footprint & 3D Model
-
-
24 ~ 48VDC
Connector
0°C ~ 50°C
CE
-
12.008" (305.00mm)
-
Ball Screw
-
-
Incremental Encoder
Stepper
±80µm
21.36lbf (95.0N)
Integrated Controller, Translation Stage
X-ASR-E
2.56 in/s (65.0 mm/s)
X-ASR100B120B-SE03D12-KX14P
Microscope Stage 100-120 mm knob
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Quantity
Contact us
PCB Symbol, Footprint & 3D Model
-
-
24 ~ 48VDC
Connector
0°C ~ 50°C
CE
-
3.937" (100.00mm)
-
Ball Screw
-
-
Incremental Encoder
Stepper
40µm
21.36lbf (95.0N)
Integrated Controller, Translation Stage
X-ASR-E
3.35 in/s (85.0 mm/s)

About  Electric Actuators/Cylinders

Electric actuators, also known as electric cylinders, are essential devices that convert electrical energy into precise mechanical motion. They play a crucial role in applications that require accurate positioning and reliable motion control. These actuators come in various types, including linear, linear axis, and rotary, each serving different purposes and offering unique features. Linear actuators can be categorized into two main types: those with built-in motors and those without. Actuators with built-in motors are self-contained units that combine the motor and actuator into a single package. They are compact, easy to install, and offer high precision in positioning. On the other hand, actuators without built-in motors require an external motor to drive their motion. These actuators provide flexibility in motor choice and can handle higher loads. Linear axis actuators are designed for applications that require motion along multiple axes. They can incorporate multiple linear actuators into a synchronized system, enabling complex and coordinated movements. This type of actuator is commonly used in robotics, CNC machines, and automation systems. Rotary actuators, as the name suggests, convert electrical energy into rotational motion. They are used when a rotary motion is required, such as in valve control, conveyor systems, and robotic joints. Rotary actuators can rotate continuously or have limited rotation angles, depending on the specific application requirements. When selecting an electric actuator, there are various factors to consider. These include motor type, stroke length (the distance the actuator can extend), load force (the maximum weight it can handle), speed, voltage compatibility, IP ratings (indicating resistance to dust and water), and more. These specifications ensure that the actuator is suitable for the intended application and can meet the desired performance requirements. In summary, electric actuators are vital devices that convert electrical energy into precise mechanical motion. They come in different types, including linear with or without a motor, linear axis with or without a motor, and rotary. By considering factors like motor type, stroke length, load force, speed, and voltage, users can select the appropriate actuator for their specific application, achieving accurate positioning and reliable motion control.