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MPL-A1530F-V-X206 — Detailed Product Information, Specifications, Applications and Related Models

1. Product Overview

The MPL-A1530F-V-X206 is a low-inertia brushless servo motor belonging to the MPL Series of servo motors.

It is a motor configuration designed for motion-control applications where accurate speed, position, acceleration, and deceleration control are required. The motor is also used as a replacement motor for compatible electric-cylinder assemblies.

The MPL-A1530F-V-X206 configuration is a 230 V class, 3000 RPM servo motor with a Frame Size 6 mechanical configuration and an 80 stack-length designation. It incorporates a 24 V brake and is associated with the corresponding electric-cylinder configuration used for linear-motion applications.

This model is particularly relevant to applications where a rotary servo motor is used to provide controlled mechanical motion through an electric cylinder, actuator, gearbox, belt mechanism, screw mechanism, or other motion-transmission arrangement.

The motor is designed around the requirements of industrial motion control rather than simple constant-speed motor operation.

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2. Brand and Product Series

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3. Important Model Identification

The catalog number MPL-A1530F-V-X206 is a highly specific motor configuration.

The model should not be interpreted simply as a generic 230 V servo motor.

The catalog number identifies a particular combination of:

• MPL servo-motor family
• 230 V class
• Frame size
• Motor stack length
• Mechanical configuration
• Feedback arrangement
• Brake configuration
• Electric-cylinder compatibility

The X206 designation is especially important because it distinguishes this motor from closely related X203, X204, X205, X207 and X208 configurations.

For replacement purposes, the complete catalog number should therefore be matched rather than selecting another MPL motor solely according to voltage or speed.

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4. Main Technical Specifications

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5. Electrical Characteristics

The MPL-A1530F-V-X206 is a 230 V-class servo motor intended to operate as part of a matched servo system.

Unlike an ordinary induction motor, the servo motor is normally controlled through a servo drive that regulates current, torque, speed, and position.

The motor’s feedback system allows the controller to determine rotor position and motor operating conditions.

This makes the motor suitable for applications where the machine must move to a defined position repeatedly and accurately.

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6. Mechanical Specifications

The motor belongs to a Frame Size 6 configuration.

The frame-size reference is approximately 215 mm, while the stack-length designation is 80, corresponding to approximately 203.2 mm.

These dimensions describe the motor’s mechanical classification and are not equivalent to the complete installed envelope.

The actual machine installation envelope can be larger because of the motor shaft, connector, brake components, cable bend radius, mounting flange, and clearance requirements.

Because this particular catalog number is a replacement-motor configuration associated with an electric-cylinder system, the exact finished weight and complete external dimensions should not be inferred from the model number alone.

For purchasing or replacement documentation, it is better to distinguish the motor’s frame and stack dimensions from its final shipping weight.

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7. Product Introduction

Servo motors are designed for applications in which a motor must do more than simply rotate continuously.

A conventional motor may be used to drive a pump, fan, conveyor, or other machine at a relatively stable speed.

A servo motor is different.

It is intended to work together with a servo drive and feedback system so that the machine can control:

• Position
• Speed
• Torque
• Acceleration
• Deceleration
• Direction
• Motion profile

The MPL-A1530F-V-X206 belongs to this type of motion-control system.

Its low-inertia rotor design is particularly useful for applications requiring rapid changes in speed and direction.

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8. Low-Inertia Servo Motor Design

One of the main characteristics of the MPL family is its low-inertia design.

Rotor inertia directly affects how quickly a servo system can accelerate or decelerate.

A lower-inertia motor can respond rapidly when the controller changes the commanded speed or position.

This characteristic is particularly useful for:

• High-speed positioning
• Repetitive motion
• Rapid indexing
• Short motion cycles
• Start-stop applications
• Electronic synchronization
• Linear positioning

The exact achievable machine performance depends on the motor, drive, mechanical load, transmission ratio, inertia ratio, control parameters, and application mechanics.

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9. Integrated 24 V Brake

The MPL-A1530F-V-X206 configuration includes a 24 V brake.

The brake is mechanically associated with the motor and can be used to help hold the motor/load when the motor is not actively producing torque.

This is especially useful in applications where gravity or external mechanical forces could cause unwanted movement when the servo motor is disabled.

Typical examples include:

• Vertical axes
• Electric cylinders
• Lifting mechanisms
• Vertical positioning systems
• Mechanical actuators

The brake should not automatically be regarded as a replacement for a complete safety-braking system.

The application must determine whether additional mechanical or safety-related holding provisions are required.

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10. Application with Electric Cylinders

One of the most important applications for this particular configuration is an electric-cylinder system.

An electric cylinder converts rotary motor motion into controlled linear motion.

A typical arrangement can be represented as:

Servo Motor → Mechanical Transmission → Screw Mechanism → Linear Actuator → Machine Load

The servo motor provides controlled rotation.

The mechanical transmission converts this rotation into linear displacement.

The servo controller can then command the cylinder to move to a specified position.

This makes the MPL-A1530F-V-X206 particularly useful in precision linear-motion applications.

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11. Typical Applications

11.1 Electric Cylinders

This is one of the most relevant applications.

The motor can be integrated with a compatible electric cylinder to provide:

• Linear positioning
• Controlled extension
• Controlled retraction
• Force-related motion
• Repetitive positioning
• Automated machine movement

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11.2 Linear Actuators

The motor can be used with screw-driven or other mechanical linear actuators.

Typical applications include:

• Machine positioning
• Workpiece positioning
• Automated adjustment
• Tool positioning
• Material handling

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11.3 Packaging Machinery

Packaging machinery frequently requires rapid and accurate motion.

Servo motors are commonly used for:

• Product positioning
• Cutting
• Sealing
• Indexing
• Label positioning
• Film handling
• Pick-and-place mechanisms

The low-inertia characteristics are particularly useful for repeated acceleration and deceleration.

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11.4 Material Handling

Servo motors can control:

• Linear slides
• Transfer systems
• Pick-and-place mechanisms
• Positioning axes
• Automated handling equipment

The motor’s feedback system allows controlled positioning rather than relying solely on fixed-speed operation.

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11.5 Assembly Equipment

Automated assembly machines often need accurate and repeatable motion.

The motor can be used for:

• Part insertion
• Clamping
• Positioning
• Pressing
• Feeding
• Tool movement

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11.6 Robotic and Automation Equipment

Servo motors are frequently used as motion axes in automated machinery.

Possible applications include:

• Rotary axes
• Linear axes
• Grippers
• Positioning mechanisms
• Automated tooling

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11.7 Machine Tools

Precision motion is essential in machine tools.

Servo motors can provide controlled motion for:

• Positioning tables
• Feed axes
• Tool mechanisms
• Automated adjustments
• Auxiliary axes

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12. Application Summary

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13. Product Advantages

13.1 Low-Inertia Rotor

The low-inertia design is one of the major characteristics of this motor.

It helps the servo system respond quickly to changes in the commanded motion.

This can be valuable when the machine repeatedly accelerates, decelerates, starts, stops, or reverses direction.

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13.2 3000 RPM Speed Class

The 3000 RPM speed class provides a useful combination of motor speed and mechanical response for many industrial servo applications.

It can be paired with an appropriate mechanical transmission to obtain the required linear or rotary machine speed.

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13.3 24 V Holding Brake

The integrated 24 V brake adds mechanical holding capability.

This is particularly useful for vertical or gravity-loaded axes.

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13.4 Suitable for Linear Motion

The motor’s compatibility with electric-cylinder applications is an important practical advantage.

Instead of using the motor only as a rotary drive, the motor can be integrated into a controlled linear actuator system.

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13.5 Precision Motion

The closed-loop servo arrangement allows the controller to monitor motor position and regulate the commanded motion.

This provides significantly more control than a basic fixed-speed motor.

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13.6 Fast Dynamic Response

Low rotor inertia allows the motor to change speed quickly when the servo controller changes its command.

This is useful for machines with short cycle times.

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13.7 Repeatability

A servo system can repeatedly move to programmed positions.

This is valuable for automated production equipment where consistent positioning is required.

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14. Five Same-Series or Closely Related Models

The following five models are especially relevant because they are closely related MPL replacement-motor configurations.

They are useful for comparing brake options, frame configurations, pitch requirements, and compatible electric-cylinder arrangements.

The X205 and X206 configurations are particularly close to each other.

The main distinction is the brake configuration: X205 is the non-brake version, while X206 incorporates a 24 V brake.

Likewise, X207 and X208 form another related pair, with X208 incorporating the 24 V brake.

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15. Same-Series Model Comparison

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16. Five Additional Models from the Same Brand

The following products are representative servo and motion-control products from the same brand portfolio.

They are not direct replacements for MPL-A1530F-V-X206. They are included as broader alternatives for applications requiring servo motors, motion control, or related automation functions.

These models cover different mechanical sizes and pitch characteristics.

They should not be selected solely on the basis of similar model numbers. The compatible electric-cylinder model, mechanical pitch, frame size, motor speed, brake arrangement, load, and required force/speed must all be considered.

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17. Comparison of the Related MPL Motors

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18. Understanding the Pitch Specification

For the electric-cylinder configurations associated with these motors, the pitch is an important mechanical parameter.

Pitch represents the approximate amount of linear movement produced for one revolution of the associated screw mechanism.

For example:

The MPL-A1530F-V-X206 is associated with the 10.0 mm/rev configuration.

This is important because changing the pitch changes the relationship between motor rotation and actuator linear movement.

A motor that looks similar electrically may therefore not be a suitable replacement if it is intended for a different pitch or electric-cylinder configuration.

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19. Why the 24 V Brake Matters

The brake is an important difference between X205 and X206.

The brake is particularly useful where the load needs to remain stationary when servo torque is removed.

This is common in vertical applications.

For example, an electric cylinder may support a mechanical load above the machine base.

If servo torque disappears, gravity may cause the axis to move.

The motor brake provides a mechanical holding function when correctly controlled as part of the machine system.

The brake’s exact safety function should always be evaluated separately from the servo motor’s normal torque-producing capability.

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20. Electric-Cylinder Application

The motor is especially relevant to an electric-cylinder arrangement.

A typical system can contain:

1. Servo motor
2. Servo drive
3. Feedback system
4. Mechanical screw
5. Linear cylinder
6. Machine load
7. Motion controller

The controller sends the desired position or motion command.

The servo drive supplies controlled current to the motor.

The motor rotates the mechanical transmission.

The screw mechanism converts rotary motion into linear movement.

The feedback system reports motor position to the controller.

The controller can then continuously adjust the motor command to achieve the desired motion.

This closed-loop operation is one of the main reasons servo motors are used in precision automation.

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21. Advantages for Linear Motion

The MPL-A1530F-V-X206 offers several characteristics that are useful for linear-motion applications.

Precise Positioning

The feedback-based servo system allows the machine to command a defined position.

Controlled Acceleration

The motor can accelerate according to a programmed motion profile.

Controlled Deceleration

The motor can decelerate before reaching the target position.

Rapid Repetition

Low inertia is helpful for repeated motion cycles.

Holding Capability

The integrated 24 V brake can provide mechanical holding when appropriately controlled.

Compact Motion System

An electric-cylinder arrangement can provide controlled linear movement without requiring a conventional pneumatic cylinder.

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22. Typical Industries

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23. Product Selection Considerations

When replacing MPL-A1530F-V-X206, the complete system should be considered rather than the motor alone.

Important factors include:

• Motor voltage class
• Servo-drive compatibility
• Motor feedback compatibility
• Rated speed
• Continuous torque
• Peak torque
• Motor inertia
• Load inertia
• Mechanical pitch
• Required linear speed
• Required linear force
• Brake requirement
• Mounting dimensions
• Shaft dimensions
• Connector configuration
• Cable requirements
• Environmental conditions
• Motor thermal requirements

A motor with the same nominal voltage but a different frame, stack length, feedback system, brake, or mechanical configuration may not be a direct replacement.

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24. Mechanical Replacement Considerations

For a replacement project, the following mechanical dimensions should be checked:

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25. Servo System Compatibility

A servo motor should normally be selected as part of a complete motor-drive combination.

The drive must be compatible with:

• Motor voltage
• Motor feedback
• Motor current
• Motor power
• Motor brake
• Motor thermal characteristics
• Motor inertia
• Feedback resolution
• Required motion profile

The MPL-A1530F-V-X206 should therefore not be treated as a generic three-phase motor that can simply be connected to any 230 V motor drive.

Its feedback and servo-control characteristics are essential parts of the product.

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26. Product Advantages Summary

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27. Quick Reference Table

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28. Final Product Summary

The MPL-A1530F-V-X206 is a low-inertia brushless servo motor in the MPL series, designed for precision industrial motion applications.

Its key characteristics include a 230 V class, 3000 RPM speed class, Frame Size 6, 80 stack-length designation, and an integrated 24 V brake.

The motor is particularly associated with electric-cylinder applications and controlled linear-motion systems. It can convert the rotary motion of the servo motor into precise linear movement through a compatible screw-driven actuator.

The motor’s low-inertia construction is useful for applications requiring rapid acceleration and deceleration, repeated positioning, frequent starts and stops, and accurate motion profiles.

The integrated 24 V brake is another important feature, especially for applications in which the mechanical load needs to remain stationary when the servo is not actively producing torque.

The closest related models include MPL-A1530F-V-X205, MPL-A1530F-V-X207, MPL-A1530F-V-X208, MPL-A1520F-V-X204, and MPL-A220F-V-X210. These models differ in areas such as brake configuration, frame size, pitch, and associated electric-cylinder configuration.

For the requested model, the most useful mechanical reference information is Frame Size 6, approximately 215 mm frame reference, and 80 stack length, corresponding to approximately 203.2 mm. The exact complete motor envelope and Weight (kg) should be confirmed from the physical motor configuration because the catalog number identifies a specific replacement-motor arrangement and the final mechanical assembly can include configuration-dependent features.

When replacing this motor, it is important to match not only the voltage and speed but also the feedback system, brake, frame size, stack length, mounting dimensions, shaft arrangement, compatible servo drive, mechanical pitch, and electric-cylinder configuration.

Overall, the MPL-A1530F-V-X206 is best understood as a precision motion-control motor for applications where controlled positioning, rapid response, repeatability, and mechanically held motion are more important than simple constant-speed rotation.