This includes everything you need to know about linear actuators.
You will learn:
A linear actuator transforms rotary motion into straight-line movement, permitting the lifting, lowering, sliding, or tilting of equipment or materials. They provide efficient, clean, and maintenance-free motion control solutions.
Electric linear actuators utilize either a DC or AC motor coupled with a gear assembly and lead screw system to extend or retract the primary rod shaft. The motor size differentiates various actuators, with options ranging from 12V DC to 48V DC.
Key considerations for linear actuators include their static and dynamic load capacities. Dynamic load capacity indicates the force it can handle while in operation, whereas static load capacity pertains to the force it can support when stationary and maintaining a load.
The adhesive applicator depicted in the diagram employs an actuator to automate the adhesive application process, a task formerly performed manually.
Actuators are essential for automating tasks such as opening automatic doors, adjusting car seats, and controlling computer disk drive mechanisms. Essentially, a linear actuator operates on the principle of an inclined plane, where the lead screw utilizes minimal rotational force to move up or down the ramp.
Linear actuators are essential machine components designed to provide precise linear motion and positioning control in countless industrial automation and engineering applications. Available in a wide range of configurations, linear actuators are tailored to fit specific requirements across diverse industries—including manufacturing, robotics, medical devices, automotive systems, and material handling. They are typically categorized based on their mechanical drive mechanism (such as screw, belt, or rack and pinion), motion guide system, and housing design. Selecting the optimal linear actuator type involves evaluating load capacity, speed, stroke length, accuracy, environmental conditions, and control system requirements. Below, we examine and compare several common types of linear actuators, outlining their features and ideal uses to help you make an informed purchasing decision.
Mechanical actuators are the most fundamental form of linear actuators, converting rotary motion into controlled linear displacement. Key types of mechanical actuators include ball screw actuators, lead screw actuators, rack and pinion actuators, belt-driven actuators, and cam actuators. Ball screws and lead screws offer high efficiency and accuracy, making them popular choices for motion control applications like CNC machinery, precision assembly systems, automated testing equipment, and pick-and-place robots. Belt-driven actuators are ideal for high-speed and long-stroke applications, while rack and pinion mechanisms provide high force linear movement suitable for heavy-duty tasks. Below are examples of mechanical actuators from Venture Mfg. Co. in Dayton, Ohio.
Hydraulic actuators, also known as hydraulic linear actuators, utilize pressurized, incompressible hydraulic fluid to generate significant linear force and displacement via an internal piston-cylinder assembly. This hydraulic system configuration enables precise control over powerful, smooth motion, even under heavy-duty loads. Traditional hydraulic cylinders are commonly deployed in construction machinery, material handling equipment, automotive industrial presses, and marine systems. The pictured hydraulic actuator demonstrates how pressurized fluid enters through a port in the cylinder, moving the piston and actuating the required linear motion. When pressure is released or redirected, the piston returns to its initial position, completing the cycle.
Hydraulic actuators are valued for their robust force output, continuous-duty capability, and excellent durability in demanding or harsh environments. Typical applications include injection molding machines, excavators, industrial presses, lift gates, and aerospace control surfaces.
Pneumatic actuators rapidly generate low to medium force and are commonly used as servo devices in automation systems. Pneumatic linear actuators utilize compressed air to convert pneumatic energy into controlled mechanical motion. These actuators feature a piston, cylinder, and control valve or port, providing either precise linear or rotary actuation. Pneumatic actuators offer fast cycle speeds, low friction, and reliable operation, making them well suited for automated conveyor systems, pick-and-place robotics, packaging equipment, medical devices, and textile automation.
When evaluating pneumatic actuators, consider the required stroke length, speed of actuation, load rating, and air consumption. Pneumatic actuators are ideal for environments where electric or hydraulic systems may be impractical due to explosive or wet conditions, or where rapid cycling is essential.
Piezoelectric actuators harness the piezoelectric effect, generating precise and rapid motion by applying electrical voltage to piezoelectric materials—often advanced ceramics or crystals. This electromechanical effect enables exceptionally accurate and responsive movement at micro- or nano-scale levels, making piezo actuators indispensable in high-precision positioning systems, optical devices, medical equipment, and semiconductor fabrication. The stacked piezoelectric actuator depicted below can quickly open or close valves with extraordinary repeatability and control, ideal for micro-dosing, scanning microscopy, and precision instrumentation.
Benefits of piezoelectric linear actuators include high resolution, fast response time, lack of mechanical backlash, and low power consumption. When selecting piezo actuators, consider the operating voltage, stroke length, and the actuator's load capacity in specialized applications.
Coiled actuators, also known as voice coil actuators or linear solenoids, use electromagnetic force to generate non-contact, friction-free motion. Current passing through a movable coil placed within a magnetic field creates force and displacement in a shaft or shuttle. By increasing the number of coil turns, current intensity, or the strength of the magnetic field, the force output can be finely adjusted for the application’s requirements. These actuators are valued for fast acceleration, smooth motion, and precise force control and are often selected for applications such as vibration testing, autofocus systems, medical pumps, and high-speed sorting machinery.
Electro-mechanical actuators deliver high-precision linear motion and force by integrating electric motors—such as DC brushless, AC servo, or stepper motors—with mechanical drive systems like ball screws or lead screws. These programmable actuators can deliver precise stroke lengths, force profiles, and speed control, making them essential in modern industrial automation, robotics, laboratory instruments, CNC platforms, packaging machinery, and process control systems. Electro-mechanical actuators are available in several configurations, including simplified, standard, and compact designs to meet various space and performance requirements.
Advantages of electro-mechanical linear actuators include easy integration with industrial PLCs and motion controllers, energy efficiency, minimized maintenance needs, and excellent versatility in both force and speed tuning. When sourcing electro-mechanical actuators, assess factors such as actuator feedback options, mounting styles, environmental protection ratings (IP ratings), and integrated control capabilities.
Telescoping actuators are specially designed for applications with restricted installation space and the need for extended reach. Available in configurations such as rigid belt, segmented spindle, rigid chain, or helical band, telescoping linear actuators employ retractable sections—often tubes of equal length that nest within each other (much like a handheld telescope). Their standout feature is delivering a long stroke length relative to the actuator’s compact retracted size, optimizing footprint and maximizing motion range in confined spaces.
Common applications for telescoping actuators include medical beds, adjustable workstations, lifting columns, stage platforms, and automated storage and retrieval systems. When specifying telescopic actuators, consider cycle frequency, load ratings, stroke requirements, and the actuator's integration with safety devices.
Ball-guided linear slides—also known as ball slide actuators or linear bearings—provide high precision, accuracy, and stiffness for demanding industrial and scientific applications. These slides use precision-ground tracks and preloaded ball bearings to ensure low friction, smooth and repeatable linear motion, and minimized wear even under high cycling or varying loads. Their non-magnetic construction makes them particularly well-suited for electronic testing, medical imaging, semiconductor manufacturing, and environments where magnetic fields could cause interference.
When selecting a ball slide for your application, be sure to consider factors like load capacity, travel accuracy, slide material, size, preloading force, and environmental resistance. Common uses range from coordinate measuring machines and optical inspection systems to micro-assembly and scientific research instrumentation.
A linear actuator is a precise mechanical device that creates motion in a straight line, as opposed to the rotational motion provided by conventional electric motors. As a fundamental mechanism in many automation solutions, linear actuators are essential in countless applications, ranging from automated wheelchair ramps and interactive toys to specialized equipment in robotics, factory automation systems, and advanced aerospace technology. The core function of a linear actuator—converting electrical, hydraulic, or pneumatic energy into linear mechanical motion—remains consistent across its wide variety of configurations, making these devices indispensable for businesses seeking dependable linear movement.
The operation of an actuator involves converting input energy into controlled linear displacement. This is typically achieved using mechanical actuating systems such as lead screws, ball screws, or roller screws, chosen based on required actuator specifications like load rating, speed, and accuracy. When the screw rotates (either clockwise or counterclockwise), it causes a traveling nut to move along its length, generating linear push or pull movement. Ball screw actuators are especially suitable for high-speed, dynamic operations requiring tight precision and minimal friction, while roller screw actuators excel in applications demanding extremely high thrust and load capacity, such as heavy machinery, presses, or industrial automation systems.
The motion of the screw in a linear actuator is clearly illustrated in the diagram below. The integrated motor, positioned above the actuator assembly, supplies the necessary torque and energy for screw rotation, transforming electrical energy into powerful, controlled linear action.
The power supply for a linear actuator can originate from a diverse range of motors, most commonly either DC or AC electric motors. Standard voltages for electric actuators typically include 12V DC, 24V DC, 36V DC, and 48V DC, with bespoke options available for specialized uses. Brush DC actuators employ internal switches—such as relays or H-bridge circuits—to reverse motor polarity, effectively changing the actuator’s direction. Advanced actuation applications often feature servo motors, stepper motors, or brushless DC (BLDC) motors, which require dedicated electronic controllers for precise position feedback and commutation; feedback devices like hall effect sensors, optical encoders, or potentiometers are used to accurately regulate stroke, force, and speed. Control electronics may be externally mounted or embedded within the linear actuator, allowing for seamless integration into modern control systems, including programmable logic controllers (PLC) or industrial IoT platforms.
The speed and force capabilities of any linear actuator are significantly impacted by its internal gearbox—an arrangement that determines the ratio of force to speed. In general, a gearbox designed to reduce the output speed will simultaneously increase available thrust, ensuring the actuator generates ample force to move heavy loads in industrial and commercial settings. This critical relationship between speed (travel rate) and force (load capacity) directly impacts actuator selection for applications such as medical devices, industrial automation, or ergonomic workstations, where optimized motion performance is key.
One of the essential parameters distinguishing one actuator from another is stroke length, which refers to the maximum distance a linear actuator can extend or retract. This is governed by the length of the screw and shaft, and must be matched to the specific requirements of each application for optimal performance and efficiency. Gear assemblies and motor selection further influence actuator dynamics, affecting both travel speed and accuracy.
For safety and precise positioning, various motion control mechanisms and feedback systems are integrated into linear actuators. Common methods to stop or detect the end of stroke include mechanical or electronic limit switches, micro switches, rotary or linear encoders, potentiometers, and linear variable differential transformers (LVDTs). A micro switch, demonstrated in the image below, is commonly installed at both ends of the actuator shaft and is triggered by the travel of the screw to reliably stop movement when the actuator reaches its extension or retraction limit.
The power source is the driving force behind linear actuator operation and can be an electric (AC or DC), pneumatic, or hydraulic motor depending on application requirements. While electric actuators using AC or DC motors are most common due to ease of control and efficiency, pneumatic (air-driven) and hydraulic (fluid-driven) actuators are indispensable in heavy-duty, industrial manufacturing environments where very high forces and rapid actuation are required. Choosing the appropriate actuation technology ensures optimal performance, energy savings, and long service life.
Power converters play a vital role in regulating and adapting energy delivery to the actuator. These devices, such as industrial voltage converters, hydraulic proportional valves, and electrical inverters, help optimize actuator response, efficiency, and compatibility with automation systems. Accurate power conversion ensures smooth and reliable linear movement, reducing energy waste and prolonging the lifespan of actuator components.
The actuator itself is the mechanical device responsible for transforming input energy (electrical, pneumatic, or hydraulic) into controlled, repeatable linear motion. Depending on the design—electric linear actuators, pneumatic cylinders, or hydraulic rams—actuators provide tailored functionality for automation, robotics, industrial machinery, medical equipment, and more. Factors such as construction materials, ingress protection (IP) rating, and actuator mounting options further determine suitability for specific environments and tasks.
The mechanical load is the total force or weight the actuator must move or support during operation. Precise load calculation is essential for optimal performance and reliability and often references standard specifications or load charts provided by the manufacturer. Both static load (force applied when stationary) and dynamic load (force required during movement) must be considered, especially for safety-critical or high-duty cycle automation applications. Understanding load types also aids in selecting actuators with appropriate duty cycles, self-locking features, and overload protection.
The controller is a key component in modern actuator systems, providing logic processing, motion control, and user interface functions. Operators use the controller to set motion profiles, positions, and set-points while advanced control solutions integrate with PLCs or software-driven HMI interfaces. Today’s controllers increasingly support automation protocols and remote monitoring, enabling real-time status updates, diagnostics, and predictive maintenance.
Modern advancements in actuator feedback technology are exemplified by the innovative Phase Index� sensor. This digital, high-speed, high-resolution, non-contact positioning sensor is engineered specifically for electromechanical actuators where durability, accuracy, and reliability are paramount. Due to its robust, vibration- and shock-resistant design, and its resilience to moisture and dust, the Phase Index sensor is ideal for industrial automation, mobile robotics, and harsh-environment positioning systems. Its self-calibrating capability eliminates the need for backup power, ensuring the actuator’s position is retained even in power outage scenarios—supporting instant readiness and decreased system downtime.
The Power Index sensor determines position by analyzing the phase relationship between two cyclic signals with differing periods. The benefits of this sensing technology include exceptional positioning accuracy, maintenance-free operation, and reliable performance—even in hostile or stressful manufacturing environments—thanks to its patented sensor mechanism. As a result, the Phase Index sensor enhances feedback precision and lifecycle value in high-performance linear actuator systems.
Selecting the optimal linear actuator for your specific needs involves considering several key selection criteria. Critical factors include load capacity (thrust), stroke length, travel speed, duty cycle, available mounting space, environmental conditions, and required position accuracy. For applications in industrial automation, robotics, or adjustable furniture, consider actuator types such as electric actuators, hydraulic linear actuators, or pneumatic actuators, each offering unique advantages in motion control, efficiency, and cost. Always compare actuator specifications, options for integrated control systems, and available feedback mechanisms to ensure compatibility and peak performance for your intended motion control solutions.
Linear actuators are trusted across a broad spectrum of industries, including manufacturing, medical technology, automation, packaging, electronics, and automotive engineering. Their ability to provide precise, programmable, and maintenance-friendly motion makes them the ideal solution for automation and positioning requirements—from packaging conveyors and adjustable hospital beds to solar tracking systems, robotics platforms, and laboratory automation devices. With advancements in sensor technology and controller integration, modern actuators enable higher productivity, increased reliability, and reduced maintenance costs, driving innovation in today's automated systems.
If you are exploring automation solutions, understanding the working principles, types, components, and key performance considerations for linear actuators is crucial for specifying the right actuator and ensuring reliable, efficient operation in your specific application.
Linear actuators are designed for efficiency and ease of use. Their design is based on the inclined plane principle, starting with a threaded lead screw that acts as a ramp. This setup produces force over a greater distance to move the load effectively.
The purpose of any linear actuator design is to provide push or pull motion. This motion can be powered either manually or through an external energy source, such as air, electricity, or fluid.
Power is the primary consideration when designing a linear actuator. To achieve mechanical power output, an input power source is required. The amount of mechanical power output is defined by the force or load that needs to be moved. Manufacturers provide data on performance graphs and charts, detailing factors such as force (F), speed (V), and current draw (I), which indicate the load capacity of the actuator.
The duty cycle refers to how often the actuator operates and the duration of its operation. It is influenced by the actuator's temperature during use, as power loss occurs through heat. Adhering to duty cycle guidelines helps prevent overheating of the motor and protects the actuator's components from damage.
Since not all actuators are identical, their duty cycles can vary. Factors affecting the duty cycle include the load, especially for DC motors, as well as ambient temperature, loading characteristics, and the age of the actuator.
Understanding the efficiency of an actuator is crucial for assessing its performance in operation. For a ball screw actuator, its efficiency will indicate whether holding brakes are necessary. Efficiency is calculated by dividing the mechanical power produced by the electrical power supplied. The resulting ratio is expressed as a percentage, representing the actuator's efficiency rating.
Several factors influence the lifespan of an actuator. Proper care and maintenance, similar to other industrial tools, play a significant role in extending its longevity. Some factors that can help extend the life of an actuator include:
Staying within the rated duty cycle � The duty cycle represents a balance between usability and lifespan. The chart below, provided by Actuonix Motor Devices, illustrates a typical duty cycle example.
Minimize side load � Actuators are designed for push and pull motions, and side loading can significantly reduce their effectiveness. Internal friction caused by side loading can quickly wear out the actuator’s components. If side loads are unavoidable, using a slide rail with the actuator can help extend its lifespan.
Staying within the recommended voltage � Applying more voltage than recommended may cause the actuator to run faster temporarily, but it will lead to quicker wear and reduced lifespan.
Force � Each actuator has a defined load capacity, such as 20 pounds. Operating it below its maximum rated capacity will help extend its lifespan.
Extreme environments � While most actuators are designed for industrial settings, it is best to avoid exposing them to extreme heat, cold, dirt, dust, or moisture. For moist conditions, there are actuators specifically designed to operate underwater. The actuator below, from Ultramotion, is engineered for underwater use.
Linear actuators can be used for tension, compression, or both, to generate pushing or pulling forces. The load capacity of a linear actuator is measured in two ways: dynamic and static. Dynamic load capacity refers to the actuator's performance while it is in motion, whereas static load capacity refers to its ability to hold a load in a fixed position without movement.
The load capacity of a linear actuator is determined by its ability to move and hold a load. Loading refers to the forces applied to the actuator, including both compressive forces that push towards it and tensile forces that pull away from it.
Dynamic load capacity is a test that measures the number of revolutions of linear motion a linear actuator can achieve before experiencing fatigue, which is identified by flaking on rolling elements and the rated life of these elements. The International Organization for Standardization (ISO) standard 14728-1:2017 outlines the guidelines for assessing load fatigue in linear actuators.
The dynamic, working, or lifting load capacity refers to the force applied to the linear actuator while it is in motion. This capacity determines the actuator's ability to move an object and is the load it will handle while powered, extending, or retracting. It indicates how much force the actuator can push or pull during operation.
When a load is in a static position, it is fixed or stationary and not moving. Static load capacity measures how much weight an actuator can safely support without back driving or sustaining damage.
Modern linear actuators resemble their early designs but have benefited greatly from technological advances. These improvements have enhanced production precision and power sources.
Advancements in engineering, materials, technology, and physics have expanded the use of linear actuators into a wide range of industries and applications. Though they often go unnoticed, linear actuators are present in many everyday environments, including stores, offices, and schools. They have become integral to technological advancements and development.
In space exploration, every component of the vehicle must be optimized for maximum utility while minimizing weight. Micro linear actuators are crucial in this regard, saving space and performing essential tasks. They are employed for operating robotics, opening and closing valves, tracking, securing locking systems, and moving robotic arms.
One of the most common applications of linear actuators in cars is for powered tailgates. Self-opening and closing tailgates have become highly popular and convenient. Additionally, linear actuators are used for opening and closing side doors and activating air brakes.
Linear actuators are integral to advanced medical equipment. They play a crucial role in healthcare by facilitating patient lifting and positioning. For example, linear actuators in beds and chair recliners allow healthcare personnel to easily adjust the height of the bed for patient treatment. Additionally, monitoring equipment, such as ventilators and temperature control devices, often uses linear actuators to adjust their height and positioning.
One common issue with operating a snowblower is the need to frequently adjust the direction of the chute. Since operating a snowblower requires both hands, reaching to change the chute's position can be challenging. A recent advancement in linear actuator technology addresses this by incorporating a switch that allows the chute's position to be adjusted with a simple thumb press. The snowblower pictured below features a linear actuator on its side for convenient and easy repositioning of the chute.
The automotive industry leverages robotics to enhance production quality and accuracy while managing production costs. Electric linear actuators play a key role by controlling and repeating precise movements, regulating acceleration and deceleration rates, and managing the required force.
In bar feeders, actuators combined with controllers are used to insert rods into the machine and adjust their height for optimal positioning. Rodless actuators are also utilized to move pallets and position lumber for cutting and packaging.
Although there are many types of linear actuators available, selecting the right one for your application is crucial. When purchasing an actuator, it's important to understand the specific requirements of your situation. Below are some key considerations to help you choose the most suitable actuator for your needs.
When evaluating where the actuator will be installed, it's crucial to determine the type of motion required. For instance, the motion needed to open and close a door or valve differs from that required to activate a process on a machine. Actuators are designed to produce either straight-line or circular motion. Assessing the type of motion and how it integrates into your process is essential for selecting the right actuator.
Electrical actuators have been refined and optimized for a wide range of applications, making them the most popular and commonly used type. However, they may not be suitable for all conditions. In cases where power is limited or unavailable, it may be necessary to consider pneumatic or hydraulic actuators as alternatives.
An actuator designed for use in outer space, where precision and accuracy are paramount, may not be suitable for heavy-duty applications in a factory setting. The choice of actuator often depends on the size and nature of the work. Small, delicate operations require actuators capable of precise movements, whereas tasks such as stacking pallets or managing a valve may not demand the same level of precision.
A primary function of an actuator is to deliver force to perform work, such as lifting, tilting, moving, activating, and sliding objects and materials. The extent of work an actuator can perform depends on the force required to move a load, which is defined by its load capacity. Manufacturers provide detailed information on their products' load capacities, and this data should be carefully reviewed to ensure that the actuator meets the requirements of the job.
Actuators are available with various motors and stroke lengths. The stroke length is determined by the length of the shaft or lead screw. Before purchasing an actuator, it is important to assess the required amount of movement for the job to ensure the actuator meets those needs.
While speed is an important factor when selecting an actuator, it is also crucial to consider the weight that needs to be moved. When a substantial amount of force is required, the actuator will move more slowly. Speed is typically measured in distance per second. Calculating the necessary duty cycle can provide valuable data to help choose an actuator with the appropriate speed and performance to meet the work conditions.
Most actuators do not perform well in dirty, wet, moist, or dusty environments. While some models are designed to work underwater, most require protection in the form of enclosures or shelters to function effectively in unclean, rugged, or rough conditions.
Each actuator features a distinct mounting style. For example, a dual pivoting mount positions the actuator on either side of the mounting point, allowing it to pivot. In contrast, a stationary mount enables the actuator to produce push or pull motions from a fixed position. Proper mounting is crucial for ensuring optimal performance and efficiency, and it should be carefully considered during the purchasing process.
Side loading occurs when force is applied radially to the actuator, which can lead to issues such as offset loads, inadequate fixed mounting, or loads pushing against the actuator. Problems associated with side loading include extension tubes pushing against the cover, rough ball nut operation, damage to gears, and actuator binding.
If the space where an actuator is needed seems restrictive and confined, you might worry that an actuator won’t fit due to its size or length. However, there are actuators specifically designed for such conditions. Several manufacturers offer various types of telescoping actuators that are built to operate effectively in compact spaces.
Pin-to-pin mounting, with spherical bearings on both sides, provides maximum tolerance for misalignment. Higher-quality designs often include features that restrict roll around the actuation axis by limiting one of the spherical bearings to only two degrees of freedom, enhancing stability and precision.
Using spherical bearings on both sides allows for maximum tolerance of misalignment. Higher-quality designs often feature constraints that limit roll around the actuation axis by restricting one of the spherical bearings to only two degrees of freedom.
The use of actuators began immediately after World War II, initially involving motors to create rotary motion, which was then converted into linear motion using ball screws. The modern version of linear actuators was introduced in the 1980s, featuring high-strength samarium and neodymium magnets. Today’s models include coils that work with these magnets to move the assembly.
Each year, new and innovative methods for utilizing linear actuators continue to emerge. These advancements enable the automation of industrial machines, provide precise control, and facilitate the positioning of heavy loads. The applications of linear actuators are vast and continually expanding.
Linear actuators offer a safer alternative compared to other energy conversion methods. They stand out for their effectiveness, boasting a high success rate while minimizing risk to people, machines, and products. In contrast, other processes often demand more time, are less efficient, and carry higher risks. By utilizing a linear actuator, machines can operate autonomously with reduced risk of interference or danger.
When evaluating the use of linear actuators, a key consideration is their return on investment. Although the initial cost may be higher than other methods, the long-term benefits and efficiency make linear actuators a superior choice. Their straightforward design and durability ensure they deliver exceptional value over time, making them a worthwhile investment.
Linear actuators are compact and straightforward, making their installation both quick and easy. With just a few wire and cable connections, they can be set up and ready for use with minimal effort, delivering impressive accuracy right away.
Most linear actuators operate quietly, with the amount of noise they generate largely dependent on their quality and usage. Key factors influencing noise levels include the manufacturer's standards and the quality of materials used. Generally, linear actuators produce noise levels of less than 55 decibels (dB).
A linear actuator can perform over 200 million cycles before requiring replacement. Throughout this extensive lifespan, it typically needs no repairs, adjustments, or maintenance, consistently delivering exceptional accuracy and efficiency.
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