Key Takeaways

• Feedback sensors help monitor actuator position and movement.
• Different sensors suit different positioning and control requirements.
• Sensor selection should consider accuracy, controller compatibility, and operating conditions.
• Choosing the right feedback system helps ensure reliable actuator performance.

A linear actuator does more than move a component from one position to another. In many applications, the control system also needs to know where the actuator is and how it is moving. That is where feedback sensors come into play.

The right sensor depends on how much position information the application needs, how precise that information must be, and how the actuator will be used. Understanding the differences between common feedback options makes it easier to choose the right configuration.

Why Feedback Matters in Linear Actuator Systems

Without feedback, a control system may know that an actuator has been instructed to move, but it may not know its actual position.

A feedback sensor provides information about the actuator’s movement or position. This can help equipment achieve repeatable positioning, coordinate multiple movements, or make automatic adjustments.

For applications that depend on accurate positioning, it is worth considering feedback when selecting the actuator rather than trying to add it later.

Limit Switches for Basic Position Detection

Limit switches are one of the simplest feedback options. They indicate when an actuator reaches a predetermined position, such as fully extended or fully retracted.

They can work well when the application only needs to know whether the actuator has reached a specific point. A machine, for example, can use a limit switch to stop the actuator when it reaches its end position.

The main limitation is that a limit switch does not provide continuous information about the actuator’s position between those points.

Potentiometers for Position Feedback

A potentiometer can provide a changing electrical signal based on actuator position. This allows the control system to determine where the actuator is within its travel.

This type of feedback can be useful when an application needs position information but does not require the capabilities of a more advanced encoder system.

The required signal range, controller compatibility, and operating environment should be considered before selecting a potentiometer.

Hall Effect Sensors for Digital Feedback

Hall effect sensors use magnetic fields to detect movement and can provide digital feedback to a control system.

They can be useful when an application needs electronic position or movement information in a relatively straightforward format. They are also suitable for applications where contactless sensing is preferred.

The sensor output and controller requirements should be checked together to ensure the feedback signal can be properly interpreted by the equipment.

Encoders for More Detailed Position Information

Encoders are an option when an application requires more detailed information about actuator movement and position.

They can help a controller monitor movement more closely and are often considered for applications where positioning accuracy, repeatability, or coordinated motion is important.

However, choosing the most advanced sensor is not always necessary. If the application only needs end-position detection, a simpler feedback option may be sufficient.

What Should You Consider When Choosing a Sensor?

The best feedback sensor depends on what the equipment actually needs to know.

If the requirement is simply detecting an end position, a limit switch may be enough. If the system needs position information throughout the actuator’s travel, a potentiometer or similar position sensor may be more appropriate. Applications requiring detailed movement or position information may benefit from an encoder.

The operating environment also matters. Temperature, vibration, moisture, dust, and electrical interference can influence sensor performance.

It is equally important to check the sensor’s output and make sure it is compatible with the controller or PLC. A sensor that does not communicate properly with the existing control system can create unnecessary integration problems.

Consider Feedback When Selecting the Actuator

Feedback is closely connected to the actuator’s mechanical and electrical design. The sensor, motor, stroke, controller, and positioning requirements should work together.

Reviewing available linear actuator solutions can help identify configurations that fit different motion and control requirements.

Feedback can be particularly useful in applications where the actuator needs to make repeated adjustments. For example, solar tracking actuators may use feedback to help a tracking system control actuator movement as the position of the solar array changes.

For equipment with requirements that do not fit a standard configuration, custom actuator design can provide additional flexibility when selecting the actuator, motor, and feedback arrangement.

Finding the Right Feedback Solution

There is no single feedback sensor that works for every linear actuator application. The right choice depends on the level of position information required, the control system, the operating environment, and the way the actuator will be used.

By defining these requirements early, designers can choose a feedback option that provides the necessary control without adding unnecessary complexity.

For applications requiring specialized actuator configurations, OEM actuator solutions can also be considered when standard options do not fully match the equipment’s requirements.

Frequently Asked Questions

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Key Takeaways

• Evaluate force, stroke, speed, duty cycle, and installation space together.
• Check motor, voltage, current, feedback, and control-system compatibility.
• Consider mounting geometry, alignment, side loading, and operating environment.
• For production equipment, also consider reliability, testing, availability, and customization.

Selecting a linear actuator for OEM equipment involves more than choosing a model with the right force or stroke. The actuator needs to work with the machine’s mechanical design, electrical system, operating environment, and expected workload.

Before choosing a model, OEMs should understand how the actuator will be used and what the equipment needs it to accomplish.

Key Specifications OEMs Should Consider When Selecting Linear Actuators

Force and Load Requirements

Force is one of the first specifications to consider. The actuator needs enough force to move the load reliably and, when necessary, hold it in position.

The required force is not always the same as the weight of the load. Mounting position, movement angle, center of gravity, and the machine’s mechanical design can all affect the actual requirement.

OEMs should consider both the force needed during movement and the load the actuator must hold when stationary.

Stroke and Available Space

Stroke determines how far the actuator can extend and retract. But the available installation space matters just as much.

Check the actuator’s extended and retracted lengths, mounting points, and clearance around nearby components. The actuator should be able to complete its full movement without interfering with the rest of the equipment.

Considering these dimensions during the design stage can prevent installation problems later.

Speed and Duty Cycle

The required speed depends on the application. Some equipment needs fast movement, while other systems require slower, controlled positioning.

Speed should be considered together with load because actuator performance can change as the load increases.

Duty cycle is also important. An actuator used occasionally has different requirements from one that operates repeatedly throughout the day. Consider how long it runs during each cycle and how frequently those cycles occur.

For production equipment, document the complete motion profile, including acceleration, travel time, dwell time, return movement, and cycles per hour. Higher loads and speeds can also increase heat generation, so force, speed, and duty cycle should be evaluated together.

Screw Type and Feedback

OEMs may encounter ACME screw and ball screw designs when selecting an actuator. The choice depends on the application’s load, efficiency, speed, and positioning requirements.

Feedback is another consideration. Basic applications may only require limit switches, while equipment requiring more precise position control may use reed sensors, potentiometers, Hall effect sensors, or encoders.

Planning these requirements early can make integration with the machine’s control system easier.

Motor and Power Requirements

The actuator must be compatible with the equipment’s electrical system. Voltage, current, motor type, and controller compatibility should be checked before finalizing the configuration.

Depending on the application, OEMs may consider DC, stepper, or brushless DC motors. The motor should match the way the actuator will operate within the equipment.

Operating Environment

Where the actuator will operate can affect its design and required protection.

Indoor equipment may operate in relatively controlled conditions, while outdoor machinery can face rain, dust, temperature changes, UV exposure, vibration, and corrosion.

This is particularly important for renewable energy equipment. Venture’s solar tracking actuators are designed for applications involving outdoor operation and repeated movement.

Mounting and Integration

The actuator needs to physically fit the machine as well as meet its performance requirements.

OEMs should check mounting dimensions, attachment points, alignment, and clearance throughout the complete stroke. Side loading should also be avoided because it can affect performance and service life.

Consider the Long-Term Requirement

For OEMs, the actuator may eventually be used across hundreds or thousands of machines. Consistent availability, support, and customization can therefore be important.

Some applications may require a particular stroke, mounting arrangement, motor, or feedback system. In these cases, custom actuator design can provide more flexibility than adapting the machine around a standard configuration.

Making the Right Choice

The right actuator depends on how all the specifications work together. Force, stroke, speed, duty cycle, screw type, feedback, motor, environment, and mounting requirements should be considered as part of the same application.

OEMs can review available linear actuator solutions based on their equipment requirements and determine which configuration fits their design.

For applications with more specific requirements, Venture’s OEM actuator solutions can also be considered when a standard actuator needs to be adapted to a particular machine.

Frequently Asked Questions

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Key Takeaways

• Understand what linear actuator duty cycle means and how to calculate it.
• Learn how load, speed, stroke, and cycle frequency affect actuator selection.
• Understand the risks of exceeding the rated duty cycle.
• Learn how to match an actuator’s duty cycle with your application requirements.

A linear actuator may need to move a load only a few times per hour—or operate repeatedly throughout the day. That difference matters. Choosing an actuator based only on force and stroke length can lead to performance problems if the actuator is expected to run more often than its design allows.

Understanding linear actuator duty cycle helps determine whether a particular actuator is suited to the actual operating pattern of an application.

What Does Duty Cycle Mean?

Duty cycle describes how much time an actuator operates compared with the total time in one complete operating cycle.

The basic calculation is:

Duty Cycle (%) = Operating Time/Active Time ÷ Total Cycle Time × 100

For example, if an actuator runs for 20 seconds and then remains idle for 40 seconds, the complete cycle is 60 seconds.

20 ÷ 60 × 100 = 33.3% duty cycle

This calculation provides a useful starting point, but the actuator’s published duty-cycle rating should always be considered as part of the selection process.

Duty cycle may also be specified over a particular reference period, such as 10 minutes. For example, a 20% duty cycle may indicate that the actuator can operate for a specified portion of that period before requiring rest. Because duty-cycle ratings vary by actuator, always check the manufacturer’s specifications for the maximum run time and required rest period.

Why Duty Cycle Matters

Every time an actuator operates, its motor and mechanical components generate heat and experience wear. Frequent operation gives the system less time to cool between cycles.

An actuator that works well for occasional positioning may not be suitable for an application requiring continuous repetitive movement.

This is especially important in automated equipment, material-handling systems, adjustable machinery, and outdoor equipment where the actuator may be expected to perform the same movement thousands of times.

Operating an actuator beyond its rated duty cycle can cause excessive heat, reduced performance, accelerated component wear, or thermal shutdown. Repeated overheating may also shorten the actuator’s service life.

Intermittent vs. Continuous Duty

Many standard linear actuators are designed for intermittent operation, meaning they operate for a period and then require time to cool. Applications involving frequent or sustained movement may require an actuator designed for a higher or continuous-duty application. Always check the manufacturer’s rated operating limits before selecting a model.

Look Beyond Runtime

Duty cycle is only one part of actuator selection. The required workload should be considered alongside:

• Load: How much force must the actuator move or hold?
• Stroke: How far does it need to travel?
• Speed: How quickly must the movement occur?
• Cycle frequency: How often will the actuator operate?
• Environment: Will it be exposed to heat, moisture, dust, or outdoor conditions?
• Installation: How will the actuator be mounted and aligned?

For example, an actuator operating under a moderate load may handle a demanding cycle differently from one moving a much heavier load at high speed.

Understanding the available linear actuator configurations can make it easier to compare these requirements before selecting a model.

How Load and Speed Affect Duty Cycle

Load and speed can affect how much heat an actuator generates during operation. Higher loads or speeds may increase motor demand, especially during frequent repetitive movement.

For this reason, force, speed, stroke, and duty cycle should be evaluated together rather than selecting an actuator based on only one specification.

How to Match an Actuator to the Application

Start by documenting the actual movement pattern rather than estimating how frequently the actuator might operate.

Record how long the actuator runs, how long it rests, how many cycles occur per hour or day, and what load it moves during each cycle.

Then compare those requirements with the manufacturer’s specifications.

If the application involves outdoor positioning or repeated movement, environmental conditions should also be included in the evaluation. Solar equipment, for instance, may require actuators designed specifically for tracking applications. Solar tracking actuators are built around the movement requirements associated with solar positioning systems.

The goal is not simply to find an actuator with enough force. It is to select one that can consistently handle the complete operating pattern.

Before making a final selection, confirm:

• Required force and stroke
• Operating speed
• Cycles per hour or day
• Maximum continuous run time
• Required rest time
• Operating temperature and environment
• Manufacturer’s rated duty cycle

Comparing these requirements with the actuator’s specifications helps ensure the selected model can handle the complete operating pattern.

When a Standard Actuator Isn’t Enough

Some applications have an unusual combination of load, speed, stroke, mounting limitations, and operating frequency. In these situations, choosing the closest standard model may not provide the desired performance.

A customized configuration can allow the actuator to be designed around the actual mechanical requirements instead of forcing the application to fit a standard specification. Custom actuator design can be useful when the application requires a specific combination of performance and mechanical requirements.

Choosing for Long-Term Performance

Selecting a linear actuator is about more than finding the required force and stroke. The actuator also needs to match how often it will operate, how long each cycle lasts, and the conditions in which it will work.

By calculating the expected duty cycle and comparing it with the actuator’s rated operating limits, you can narrow down the options more confidently. This helps ensure the actuator is suited to the application’s actual workload rather than simply meeting its basic movement requirements.

For systems with frequent or repetitive movement, considering duty cycle early in the design process can help support consistent performance and avoid selecting an actuator that is undersized for the job.

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Picking the wrong linear actuator manufacturer is the kind of mistake you don’t notice right away. Things look fine until you are mid-project and your electric linear actuator is underperforming, delivery is delayed, or the support team has gone quiet. It happens more often than people expect. The good news is that most of these problems are easy to avoid if you know what to look for before you sign anything.

Key Mistakes Buyers Make During Manufacturer Selection

• Choosing Based on Price Alone

Getting a low quote feels like a win, but it rarely stays that way. A cheap industrial linear actuator that breaks down after a few months or doesn’t hold up under real operating conditions ends up costing you far more in downtime, rework, and replacements. Price is one factor, not the only one.

• Overlooking Industry Experience and Technical Expertise

There’s a big difference between an actuator manufacturer who has shipped thousands of units into demanding environments and one who is still figuring it out. If your application involves heavy loads, harsh conditions, or tight tolerances, you need a team that has been there before, not one you’re going to train on your dime.

• Ignoring Product Quality and Testing Standards

Ask any good linear actuator manufacturer how they test their products before they leave the factory. If the answer is vague, that’s a red flag. Actuators that skip proper end-of-line testing tend to show problems in the field, which is the worst place to find them.

• Failing to Evaluate Customization Capabilities

A lot of buyers assume a Catalog product will do the job and only find out it won’t once things are already in motion. If your project has specific stroke lengths, unusual mounting needs, or demanding duty cycles, you need custom linear actuator manufacturers who can actually build around your specs, not just hand you something close.

• Neglecting After-Sales Support and Service

Once the order ships, some manufacturers go quiet. That’s a problem. A good industrial linear actuator manufacturer picks up the phone, answers your questions, and stands behind what they sold you without turning it into a fight. If getting a response before the order feels like pulling teeth, don’t expect that to change afterward.

• Ignoring Industry Certifications and Compliance Requirements

This one gets skipped more than it should. Depending on where your linear actuator ends up, it may need to clear specific safety or environmental standards. Finding that out after the design is locked in means going back to the drawing board, which costs time and money you didn’t budget for.

How to Evaluate a Reliable Linear Actuator Manufacturer

Not sure where to start? These are the things that actually matter when you’re sizing up a manufacturer:

• Technical Consultation and Engineering Support

Pay attention to the questions they ask you. A solid linear actuator manufacturer will want to know about your load, your environment, your duty cycle, and what the application actually does before they suggest anything. If the first thing they do is point you to a product page, that tells you something.

• Proven Track Record in Similar Applications

A well-built website doesn’t mean much on its own. Ask for real examples. Custom linear actuator manufacturers who know what they’re doing will have actual projects to talk about, ideally in your industry or something close enough to it.

• Quality Assurance Processes

It’s worth asking directly. Do they test every unit before it ships? Is there a documented process or is it more of a “we check it before it goes out” answer? The details matter.

• Custom Design and Prototyping Capabilities

There’s a difference between a manufacturer who can tweak a standard product and one who can genuinely design a custom linear actuator from your specs and take it all the way to production.

• Responsive Customer Support

Seriously, time how long it takes to get a real answer to your first inquiry. Industrial linear actuator manufacturers who are slow or vague before the sale don’t usually get faster after it.

Choosing the right industrial linear actuator manufacturer like Venture Mfg. Co., takes a little more time upfront, but it saves you a lot of headaches down the road. The right partner doesn’t just supply a part. They help make sure it works.

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Most people focus on load capacity and stroke length when selecting a linear actuator. Those things matter, but the environment your actuator operates in matters just as much. An electric linear actuator that performs perfectly in a clean, temperature-controlled lab can fail quickly when exposed to heat, moisture, dust, or vibration in the field. Understanding how your environment affects actuator performance is something a lot of buyers skip, and it usually shows up as a problem later. Getting this right from the start saves you from early failures and unexpected repair costs down the road.

Key Environmental Factors Affecting Electric Linear Actuators

• Temperature Extremes

Heat and cold are harder on a linear actuator than most people expect. Run one too hot and the lubricant starts breaking down, while the motor quietly creeps toward its limit. Cold temperatures thicken grease, increase friction, and slow response times. If your application runs in extreme heat or freezing conditions, make sure your actuator is rated for that range and that the internal components can handle it consistently.

• Moisture and Humidity

Water is one of the fastest ways to damage an electric linear actuator. Moisture gets into motor windings, corrodes metal components, and breaks down lubrication. High humidity environments need actuators with proper sealing to keep water out, whether that’s a closed facility with condensation or an outdoor application exposed to rain.

• Dust and Particulate Contamination

Fine dust and debris work their way into moving parts and act like sandpaper over time. In woodworking, agriculture, mining, or any environment where particles are in the air, an unprotected actuator will wear down faster than expected. Sealed or enclosed designs are a much better choice in these conditions.

• Chemical Exposure

Oils, cleaning agents, fertilizers, and industrial chemicals can degrade seals, corrode housings, and break down coatings. If your actuator is near chemicals regularly, the materials it’s made from need to be chosen with that exposure in mind.

• Outdoor and Weather Conditions

Outdoor applications bring everything at once: temperature swings, moisture, UV exposure, and debris. A custom linear actuator built for outdoor use needs to account for all of these, not just one or two.

• Shock and Vibration

Constant vibration loosens fasteners, fatigues mechanical connections, and wears down internal components over time. Applications involving heavy machinery, transport equipment, or off-road vehicles put real stress on actuators with every cycle.

Best Practices for Operating Actuators in Harsh Environments

• Choosing the Right Actuator Design

Start by matching the actuator design to the actual conditions it will face. A good actuator manufacturer will help you work through this rather than defaulting to a standard Catalog product.

• Selecting Proper Materials and Coatings

Stainless steel, anodized aluminum, and specialized coatings all extend actuator life in corrosive or wet environments. Material selection is one of the first conversations worth having with your manufacturer.

• Environmental Sealing Options

Look for IP-rated sealing appropriate to your environment. IP65 handles dust and water jets. IP67 and IP69K go further for submersion or high-pressure washdown situations. A custom linear actuator can be built with the exact sealing level your application needs.

• Preventive Maintenance Programs

Even well-built actuators benefit from regular checks. Keep an eye on:

1. Lubrication levels and condition
2. Seal integrity and signs of wear
3. Fastener tightness in high-vibration setups
4. Any unusual noise or change in speed

• Monitoring Performance Indicators

Changes in cycle time, increased current draw, or unusual heat are early signs something is wrong. Catching these early gives you time to address the issue before it becomes a full failure.

Working with an experienced actuator manufacturer like Venture Mfg. Co., who understands harsh environment applications makes all the difference. The right electric linear actuator, built and specified correctly for its environment, will outlast a poorly chosen one by a wide margin.

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While Venture offers 12V, 18V, 36V, 48V, 90V, 120V DC actuators, this post explores the differences between 12V and 24V linear actuators, their respective benefits, and ideal applications, which may help you determine the right actuator based on your application needs. The same principles apply as the DC voltage increases. Venture also supplies a very low-cost rectifier, to use in converting traditional AC voltage to DC voltage.

Difference Between 12V and 24V Actuators

Understanding their differences is essential to selecting the right actuator for your application.

• Power and Performance: A 12V linear actuator typically offers lower power output, making it more suitable for lighter, smaller-scale applications. It operates with less force and slower speeds, ideal for tasks that don’t demand heavy-duty performance. While, 24V linear actuator delivers more power, providing faster speeds and greater force.
• Speed: In terms of speed, a 12V linear actuator operates at a slower pace, making it suitable for precise movements where speed is not a priority. A 24V linear actuator is generally faster due to the higher voltage, which is beneficial in applications where speed is a key factor, such as in conveyor systems or heavy machinery.
• Loads: When it comes to force and load capacity, 12V actuators are designed for lighter loads and smaller-scale tasks. They are perfect for applications that don’t require significant lifting or pushing power. In contrast, 24V linear actuators are designed to handle much heavier loads, making them better suited for industrial environments.
• Energy efficiency: The 12V linear actuators are generally more energy-efficient for smaller applications because they consume less power. This can lead to longer battery life when used in off-grid or portable systems. However, 24V actuators are more efficient in handling larger loads and higher demands, although they consume more power.
• Size and installation: 12-volt actuators tend to be more compact and lightweight, making them easier to fit into tight spaces. They can be powered by smaller, simpler power sources such as batteries, which adds to their versatility. While, 24V actuators are slightly larger, are better suited for environments with substantially high power requirements and may require additional wiring or control systems for installation.

Key Factors to Consider When Choosing Between 12V and 24V Actuators

Here are some pointers that will help you choose the right actuator.

1. Power requirements: If your application requires a high level of force or speed, a 24V linear actuator will be a better option. These actuators are designed for heavier-duty tasks and offer a greater output of power. And, if your application requires minimal force and slower, more controlled movement, a 12V actuator is likely the better choice.
2. Type of application: For smaller projects like home automation systems, adjustable beds, or solar-powered applications, a 12V actuator may be appropriate. It’s compact, energy efficient, and cost-effective for such uses. In contrast, larger industrial systems, robotic arms, or automotive applications require a 24V actuator for handling larger static and dynamic loads, speeds, and rotational as well as linear movements.
3. Energy consumption and efficiency: A 12V actuator consumes less power, which is more energy-efficient for low-demand applications. A 24V actuator, while consuming more power, is more efficient at transferring power to mechanical movement when handling heavy-duty tasks, so it can still be energy-efficient when used in high-demand applications.

Learn more on this topic in our related blog: Maintenance Tips for 12V Linear Actuator for Smooth Operation

Need a perfect linear actuator for your project? Visit Venture Manufacturing’s website to explore our range of high-performance linear actuators. We offer a range of electric linear actuators to suit a variety of applications. Whether you need a 12V linear actuator for a small project or a 24V linear actuator for industrial applications, our team is here to guide you toward the right solution.

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The landing gear is a vital component of any 5th wheel trailer or RV, providing stability and support when the trailer is unhitched from the tow vehicle. Designed to handle the significant weight of these trailers, landing gear ensures safe and level positioning during use. Whether you’re using a fifth-wheel trailer for recreation or transportation, the RV landing gear plays a key role in supporting heavy loads and protecting your investment. Properly functioning replacement landing gear is essential for safe parking and storage, ensuring smooth and hassle-free operations for enthusiasts. In this post, we will explore the key factors you should consider when purchasing landing gear for your vehicle.

What to Consider Before Buying Fifth Wheel Landing Gear?

When purchasing 5th wheel landing gear, you need to choose equipment that meets your trailer’s specifications and ensures safety, reliability, and long-term performance. Below, we outline the essential features and factors to help you make an informed decision.

• Weight Capacity

  • Ensure the landing gear you choose supports the weight of your 5th wheel trailer or RV. Each landing gear is rated for a specific lifting capacity, so verify the gross vehicle weight (GVW) of your trailer and select a landing gear that exceeds this requirement.
  • For heavier trailers, look for RV landing gear with dual motors or reinforced construction to handle the increased weight efficiently.
  • A mismatch in weight capacity can lead to premature wear or mechanical failure.

• Gear Type: Manual vs. Electric

  • Manual landing gear requires physical effort to operate, making it a cost-effective choice for smaller or less frequently used trailers. However, it can be inconvenient for larger trailers.
  • Electric landing gear provides ease of use and precision, ideal for larger RVs or 5th wheel trailers. It saves time and effort during setup and takedown, especially in rough terrains.
  • Choose a gear type based on your usage frequency and your willingness to invest in convenience versus manual labor.

• Compatibility with Your Trailer

  • Verify that the fifth wheel landing gear is compatible with your specific trailer model. Some replacement landing gear options are universal, while others are designed for specific makes and models.
  • Ensure the mounting brackets, shaft size, and motor connections align with your trailer’s existing setup to avoid modifications.

• Build Quality and Materials

  • High-quality materials, such as corrosion-resistant steel, ensure durability and longevity. Check for robust construction to handle heavy-duty use.
  • Look for weatherproof coatings to protect against rust and wear, especially if you frequently travel in harsh weather conditions.

• Speed and Smooth Operation

  • The operational speed of the 5th wheel landing gear impacts how quickly you can raise or lower the trailer. Faster gears save time, while smooth operation ensures stability during adjustments.
  • Features like integrated shock absorption and noise reduction are bonuses for quieter and more stable operation.

Learn more on this topic in our related blog – 4 Most Important RV Landing Gear Accessories

• Power Source for Electric Gears

  • For electric RV landing gear, consider the power source. Most are powered by your vehicle’s 12-volt battery system. Ensure your trailer’s battery setup can supply adequate power to avoid issues.
  • Some advanced models also feature manually operated options, providing flexibility in case of a power outage.

• Maintenance and Replacement Ease

  • Choose replacement landing gear that is easy to maintain and service. Models with accessible components make routine checks and lubrication simple.
  • Opt for landing gear with readily available replacement parts to avoid delays in case of mechanical failures.

• Cost vs. Value

  • While it is tempting to choose the cheapest option, investing in a reliable and durable fifth wheel landing gear often saves money in the long run. Consider the overall value offered by a product, balancing quality with affordability.
  • Evaluate warranties and after-sales support as part of the overall cost consideration.

• Noise and Vibration Levels

  • Some landing gears produce significant noise and vibration during operation, which can be disruptive. Look for gears designed to operate quietly and smoothly, especially if you frequently park in campgrounds or residential areas.

• Ease of Installation

  • If you are planning to install the landing gear yourself, choose a model with straightforward installation instructions using minimal tools.
  • Pre-assembled kits and user-friendly designs save time and effort, making them a popular choice among DIYers.

• Brand Reputation and Reviews

  • Opt for reputable brands with proven reliability in the industry. Check customer reviews and testimonials to assess real-world performance and satisfaction.
  • Trusted manufacturers often offer better support and warranties, ensuring peace of mind for your purchase.

Are you looking for durable and efficient 5th wheel landing gear? Venture Manufacturing offers a wide range of reliable landing gears to ensure smooth operation, stability, and safety for your equipment. With expert engineering and high quality, these products are built to perform. Have any requirements or questions? Contact the team at Venture Manufacturing today to discuss your requirements and receive recommendations or tailored solutions for your needs.

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Electric actuators play a vital role in precision motion control across numerous industries, enabling precise, automated movement essential for modern machinery. Electric linear actuators convert rotary motion into linear motion, which facilitates controlled motion such as lifting, tilting, pushing, or pulling. Without these actuators, tasks that involve adjusting or manipulating heavy loads and equipment can become more complex, inefficient, and prone to errors or mechanical failures. Venture Linear Actuators are available in a wide range of input voltages. This article delves into essential maintenance practices and explains why maintenance is important to ensure the optimal performance, longevity, and functionality of electric linear actuators.

Why Electric Linear Actuator Maintenance is Important?

Industries like automotive, agriculture, robotics, and home automation heavily rely on these components to achieve smooth, reliable, and controlled motion, enhancing operational efficiency and safety. Hence, maintaining linear actuators is essential for several reasons. Here are some pointers:

• Prevents Wear and Tear: Regular inspection and lubrication minimize friction, reducing the chance of parts wearing out prematurely.
• Ensures Optimal Performance: Proper maintenance helps the actuator operate smoothly and efficiently, avoiding interruptions or breakdowns.
• Extends Lifespan: By taking care of your electric actuator, you maximize its functional life, saving time and money on replacements.
• Enhances Safety: Well-maintained actuators reduce the risk of malfunctions, which is particularly crucial when they are used in critical applications.

Maintenance Tips for Linear Actuators

Linear actuators facilitate a quiet operation, which may be a requirement in certain applications. Hence, they must be maintained to prevent noise, friction, and facilitate seamless movements at the required angles. Regular maintenance is important to ensure your 12V electric linear actuator remains in top working condition. Regular cleaning, lubrication, electrical checks, and inspection of hardware are essential practices to keep the actuator functioning smoothly.

• Regular Cleaning: Dust, dirt, and debris can accumulate on the actuator, affecting its performance and lifespan. Regular cleaning is essential to prevent these contaminants from interfering with the actuator’s components.
  • Use a soft cloth to wipe down the external surfaces of the actuator.
  • Avoid using water directly as moisture can damage the electrical components. Instead, use a slightly damp cloth if necessary.
  • For hard-to-reach areas, use compressed air to blow away dust and debris.
• Lubrication of Moving Parts: Proper lubrication is vital for the smooth operation of a linear actuator. It reduces friction between moving parts, ensuring they move freely and efficiently.
  • Choose the right lubricant recommended by the manufacturer. Avoid using oils or greases that are not designed for use with electric actuators as they may cause damage.
  • As applicable, apply lubricant to the lead screw, guides, and other moving parts, ensuring a thin, even coating.
  • Wipe off any excess lubricant to prevent it from attracting dust and debris.
• Inspect Electrical Connections: A 12-volt electric actuator relies on secure electrical connections for optimal performance. Loose or corroded connections can cause malfunctions or reduce efficiency.
  • Check the wiring for any signs of wear, fraying, or damage.
  • Ensure all connectors are securely fastened and free of corrosion.
  • Periodically test the actuator’s power source to confirm it provides the correct voltage and current.
• Monitor for Unusual Noises or Vibrations: Unusual noises or vibrations can be an early warning sign of mechanical issues within the actuator. It’s crucial to address these problems promptly to avoid further damage.
  • Operate the actuator at different speeds and listen for any grinding, clicking, or irregular noises.
  • Check for vibrations that may indicate loose components or misalignment.
  • If you detect any issues, inspect the internal parts for signs of wear or misalignment and tighten any loose parts as necessary.
• Avoid Overloading the Actuator: One of the most common causes of damage to linear actuators is overloading. Each actuator has a specific load capacity, and exceeding it can lead to mechanical failure or reduced efficiency.
  • Familiarize yourself with the load limits of your 12-volt electric actuator as stated by the manufacturer.
  • Avoid placing excessive weight or force on the actuator during operation.
  • If you require higher load capacity, consider upgrading to an actuator designed to handle more weight instead of overloading the current unit.
• Inspect and Tighten Mounting Hardware: Mounting hardware is responsible for keeping the actuator securely in place during operation. Loose or worn hardware can cause misalignment or failure.
  • Regularly inspect the mounting brackets, screws, and bolts to ensure they are tight and in good condition.
  • Replace any hardware that appears damaged or corroded.
  • Ensure that the actuator is correctly aligned with the components it interacts with as misalignment can cause unnecessary stress and wear.
• Check and Adjust the Limit Switches: Limit switches control the range of movement for the linear actuator, preventing it from overextending or retracting beyond its design limits.
  • Periodically test the limit switches to ensure they function correctly.
  • If the actuator stops too early or extends beyond its intended range, adjust the limit switches according to the manufacturer’s instructions.
  • Keeping the limit switches calibrated helps prevent mechanical damage and ensures the actuator operates efficiently within its safe range.

Learn more on this topic in our related blog: “Things to Know About 12v Linear Actuators.”

12V electric linear actuators are necessary in industrial applications, providing precise and controlled motion necessary for lifting, tilting, and adjusting heavy loads. Their integration into industrial equipment and systems enables automation, thus leading to enhanced productivity, precision, and operational efficiency. Their reliability under varying loads and conditions makes them a key component in optimizing workflow and ensuring consistent performance across sectors like robotics, manufacturing, and automation. Their ability to function with accuracy and stability under different scenarios underscores their critical role in modern industrial machinery and automation systems.

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