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FLS40
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FLS80/120
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FPLS60/80
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Linear Stage
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Factory Ball Screw Enclosed Linear Motion Guide Good Repeatability and Accuracy
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Miniature Aluminum Profile Small and Light Linear Rail Guide with Stepper Motor
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100-2000mm Travel Length Ball Screw Linear Motion System
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High Perfomance Ball Screw Automated Linear XY Table
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CE FCC RoHS IP66 Certification Linear XYZ Motion System
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High Torque Low Noise Ball Screw 3-axis Linear Motion Guide
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High Rigidity 120mm Width Linear Positioning Table
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100kg Load Capacity Ball Screw Cartesian Robot
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Free Shipping Multi-axis Ball Screw Linear Motion Stage
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Wholesale Factory Supplier Linear Module with Servo Motor
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Electric Motorized Linear Actuator Positioning System
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Manufacturer Price Ball Screw Linear Axis Robotic Arm
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Dustproof Linear Motion System Cartesian Robot for Milling Machine Laser Robotic Arm
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High Precision Ball Screw Linear Motion Guide
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Heavy Duty Compact Ball Screw Linear axis robot arm
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High Speed Belt Driven Linear Actuator with Stepper Motor
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Long Stroke Belt Driven Aluminium Linear Guide Rail
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OEM Nema 34 Ball Screw Linear Module for Palletizing Cutting Drilling
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Accept Customization Ball Screw Linear XY Table
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Industrial Robot Machinized Ball Screw Linear Guideway
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How to Specify, Select and Apply Linear Ball Screw Drives
Ball return systems, Ball screw selection and Ball screw lubrication. Specifying the right ball screw for a given application will ensure machine accuracy, repeatability and life while minimizing the total cost of ownership. A ball screw drive translates rotational motion to linear motion or vice versa and can apply or withstand high thrust loads–upward of 750,000 lb static capacity using a Ø6...
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How to Estimate Your Linear Actuator Needs with Minimal Application Data?
High moment loads can dictate the use of a dual-rail style linear actuator. Selecting an actuator based on approximations of the performance requirements is arguably more risky than choosing a linear guide or drive with minimal application info. But still, the situation is quite common where a designer or engineer needs a reasonable estimate of the system that will work best for their applicat...
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Does my system need high accuracy or repeatability (or both)?
Component selection and machine design affect system accuracy and repeatability. Before we answer this question, let’s define accuracy and repeatability for linear systems. 【Accuracy】 In linear motion, there are two generally categories of accuracy – positioning accuracy and travel accuracy. Positioning accuracy specifies the difference between the system’s target position and the actual pos...
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What is sub-divisional error (SDE) in linear encoders?
Accuracy of the interpolation. To determine the position of a linear axis, an encoder read head travels along a scale and “reads” changes in light (for optical encoders) or magnetic field (for magnetic types). As the read head registers these changes, it produces sine and cosine signals that are shifted 90 degrees from each other (referred to as “quadrature signals”). These analog sine and cos...
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Linear Systems for Nanopositioning
Piezo actuators, Voice coil actuators, Linear motor stages. When we talk about linear motion, we typically discuss applications where the travel distance is at least a few hundred millimeters, and the required positioning is in the range of a few tenths of a millimeter. And for these requirements, guides and drives with recirculating bearings are a good fit. Case in point: the lead deviation f...
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FAQ: What types of linear encoders are there and how do I choose?
Absolute or incremental, Optical or magnetic. Linear encoders monitor linear movement and provide position feedback in the form of electrical signals. In servo driven systems, linear encoders supply the precise position of the load, typically in addition to the speed and direction feedback provided by the motor’s rotary encoder. For stepper driven systems, which typically operate in open-loop ...
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What To Do When Your Motion System Throws You a Curve
Guide-wheel based ring and track systems are more compact and offer better positioning accuracy and more options for cargo carrying positions than alternative conveyor systems for curvilinear applications. In the ongoing drive to reduce production costs, one trend at manufacturing facilities is grouping production work stations as closely as possible to minimize material movement and to conser...
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Positioning stages and gantries — new trends in integration approaches
The linear, rotary, XY, or vertical-lift stage integrates motor, drive, and controller. There’s demand for motion designs offering simplicity or turnkey operation, so component suppliers are now doing much more integration for OEMs and plant engineers. Nowhere is this more evident than in the way today’s positioning stages, rotary tables, and gantry setups are built. These quickly connect elec...
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Simple support structure improves warehouse packaging efficiency
An improvement in packaging efficiency required attention to ergonomics, ease of assembly, and cost efficiency. Automation is changing how traditional distribution centers operate as companies search for new ways to maximize their efficiency, increase order accuracy and fulfill customer demand. When it comes to automated technology, most people tend to think about robots, automated guide vehic...
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What is an LED Matrix Screen?
High-end LED Billboard Subversives. The dynamic ups and downs of each module of the fuyu LED matrix screen combine with the video screen to form different creative combinations. The terminator of two-dimensional plane advertising leads the epochal wave of media replacement and advertising appreciation. Product definition of fuyu LED matrix screen: The LED matrix screen is composed of several i...
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How to estimate your linear actuator needs with minimal application data
Load, Accuracy, Speed and Travel. Choosing linear motion components during the development phase of a project has been a source of frustration for designers and application engineers for decades—especially when it comes to complex subassemblies such as linear actuators. Consider for a moment the influence that a linear actuator has on the overall machine design. First of all, in an actuator, t...
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Which type of linear actuator is best for thrust forces?
Electromechanical designs in motion control applications. When an application requires pure thrust forces, the best type of linear actuator is often a rod-style actuator. Also referred to as “thrust actuators” and (when a motor is integrated) “electric actuators,” these electromechanical devices excel at providing axial, or thrust, forces for pushing, pulling, or holding loads. Although their ...
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Linear Actuators: the Make vs. Buy Decision
Business evaluation, Manufacturing and assembly requirements, Customer support needs. With the range of linear actuators on the market, it’s becoming easier for machine builders and end users to find a standard or “customized standard” product that meets even the most unique application requirements. But there are still times when it makes sense, from a financial or technical standpoint, to de...
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Actuator Basics: Five Different Technologies Integrated into One Package
Motive power source, means of transmission, bearing or guidance, frame or support structure, position feedback (in most cases). Another area of Mechatronics that is very confusing is the area of actuators. The problem is that you can buy actuators that are assemblies of several components, or you can buy the components, and they’re all called actuators. This is traditionally an ambiguous area ...
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What are some considerations for linear actuators in contaminated environments?
A typical contaminated environment is shown here. Reliable motion is often difficult to obtain when the operating environment is heavily contaminated with debris, or contains extreme conditions such as a wide temperature range or other environmental factors.The use of machinery for operations such as cutting, welding, and material processing often generates a substantial amount of debris conta...
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High speed linear actuators: What qualifies them as high speed?
Screw diameter, length, or end bearing arrangement. Like many terms used in the linear motion industry – “heavy duty,” “miniature,” and “corrosion-resistant,” to name a few – there is no industry standard that specifies what constitutes a “high speed” linear actuator. Nevertheless, there are some general guidelines that manufacturers follow when classifying and marketing their actuators as hig...
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Can a Linear Actuator Provide the Rigidity and Accuracy of a Linear Stage?
U-shaped linear actuators are constructed with an extruded steel base. Although there are no industry standards that define linear actuators and linear stages, generally accepted terminology indicates that a linear actuator is typically constructed with an aluminum extrusion or base, while a linear stage is typically built on a flat, machined steel or granite base. This distinction impl...
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What is ratcheting in synchronous belt drives?
Proper tension of synchronous belts is the tension at which the belt will transmit the required power without ratcheting when the drive system experiences full load. Synchronous belts (also referred to as toothed, cogged, timing, or high torque belts) use profiled teeth that mesh with a pulley or sprocket to deliver power transmission – most notably for applications that require high torque. W...
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5 Keys to “Mechatronics Made Easy”
Structure, Components, Electronics Wiring, Maintainability. Bringing together mechanical, electrical, programming, and control engineering is not effortless. But integrating technology advances, and focusing on these five areas, can simplify the process and ensure that mechatronics is made easy. Today’s fast paced product development cycles and rapid advances in technology have pushed the need...
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What You Need to Know About Corrosion-resistant Linear Guides
Especially for applications that require FDA or USDA compliance Recirculating ball and roller guides are the backbone of many automation processes and machines, thanks to their high running accuracy, good rigidity, and excellent load capacities — characteristics made possible by the use of high-strength AISI/ASTM 52100 chrome steel (commonly referred to as bearing steel) for the load-bearing p...
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Five Steps to Linear Motor Integration
Typical Configuration of Motion System Design Linear motion is central to many moving machines, and the direct-drive nature of linear motors can simplify overall machine design in these applications. Other benefits include improved stiffness, because linear motors are fixed directly to the load. Integrating these motors (and the peripheral components they require) can seem daunting, but the pr...
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Automated linear-transfer tool trays
Getting high precision and repeatability from production lines Until recently, getting high precision and repeatability from production lines was difficult. But now new systems for automation are eliminating barriers associated with manual handling and assembly of high-quality product. Here we review one such option — the offering known as linear tool tray-transfer systems. Linear tool tray-tr...
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What is racking in gantry systems?
And how can it be avoided… Gantries differ from other types of multi-axis systems (such as Cartesian robots and XY tables) by using two base (X) axes in parallel, with a perpendicular (Y) axis connecting them. While this dual X-axis arrangement provides a wide, stable footprint and allows gantry systems to deliver high load capacity, long travel lengths, and good rigidity, it can also le...
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What causes synchronous belt noise and how can it be reduced?
Slience means faster and longer lifetime. Synchronous belts are common in motion systems, providing smoother operation and better high-speed performance than chains and lacking the problems of slipping and stretching that can plague V-belts in precision applications. But one downfall of synchronous, or toothed, belts is the noise they produce. Although quieter than a chain drive, a synchronous...
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Take the burden out of managing misalignment in linear motion systems
Guard against causes of bearing failure. No one wants a linear bearing to fail prematurely. While many factors can threaten a bearing’s expected life, designers of industrial machines must especially guard against alignment errors between the bearing rails and moving elements. Not only is misalignment one of the most common causes of bearing failure, it is also among the most costly and comple...
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Different Drive Concepts For Different Machine Tool Motions
Main Drives Main drives are predominantly closed-loop controlled, electric synchronous, and asynchronous motors. Their applications include kit or housed motors for use in turning, milling and grinding machines as well as in machining centers. The traditional spindle drives with housed motors – mostly air-cooled – are also popular as main drives. In comparison with motor spindles they are less...
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Rules for Actuator and Guide Alignment in Linear Motion Systems
Following a few simple guidelines for designing linear motion systems can improve system performance and actuator life. Many automated machines rely on linear guidance components, such as profiled rail, round rail or other rolling or sliding bearing structures, to guide and support the moving elements of equipment. Additionally, many times these moving elements are driven by some type of linea...
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What types of motion can you create with multi-axis linear systems?
Point-to-point motion, Blended motion, Contoured motion. For many tasks, multi-axis linear systems — Cartesian robots, X-Y tables, and gantry systems — travel in straight lines to achieve quick point-to-point movements. But some applications, such as dispensing and cutting, require the system to follow a circular path or a complex shape that can’t be created by simple lines and arcs. Fortun...
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Linear Motion Systems: Only as Strong as Weakest Link
Review five links in the chain of design elements so critical to precision operation. A linear motion system is only as strong as the most compromising links in its chain of mechanical and electromechanical elements. Understanding each component and feature (and its impact on design output) improves decisions and the odds the final design fully meets application demands. After all, system back...
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6 things small manufacturers need to know about Cartesian robots
Load, Accuracy, Stroke, Controller, Driver and Supplier. 1. They handle heavier loads—A 20 kg payload is no problem for a Cartesian robot, which makes money savings possible by downsizing mechanics, using smaller components and less complex controls. 2. They fit tough orientations—A Cartesian robot is able to achieve the required precision when space is tight. 3. They widen travel range—Cartes...
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Doing the Heavy Lifting: When Cartesian Robots Make the Most Sense
Terminator Size Robot is Ok? Compared to a Cartesian robot, a SCARA or six-axis system will generally deliver higher performance out of the box at a higher cost and with greater programming requirements, but with a smaller footprint, less weight and less rigid arm extension. On the other hand, a Cartesian system provides building blocks to create a solution that costs less and involves fewer e...
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What are the main types of linear actuators?
Belt-driven/Screw-driven/Pneumatically driven/Rack-and-pinion driven/Linear motor driven 【Belt-driven and screw-driven actuators】 Although belt and screw drives are different technologies, it makes sense to put them in the same category because they are the two most common types of electromechanical actuators. Most manufacturers of linear actuators offer both belt and screw-driven options. B...
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What’s the Difference Between Serial Kinematics and Parallel Kinematics in Multi-axis Motion Design?
We are solving the positioning problem. Today’s positioning tables and stages include hardware and software that’s more customized than ever to satisfy specific output requirements. That’s made for motion designs that move accurately through even complicated multi-axis commands. Precision feedback is key to such functionality — often taking the form of optical or (electronics-augmented) magnet...
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A Selection Guide for Linear Systems
Multi-axis Stages and Tables Gone are the days when machine designers and builders had to choose between constructing their own linear system from scratch or settling for a limited range of pre-assembled systems that, in most cases, were an imperfect fit for their application. Manufacturers today offer systems based on a range of drive mechanisms—ball screws, belts, rack and pinions, linear mo...
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Robotics or Motion Control? That is the question.
10 Questions to Help Decide. Though the lines can often be blurred, robotics and motion control are not the same thing. They are closely related in many ways, but robots lean towards more “pre-engineered” solutions while motion control leans towards more modular solutions. This small but significant distinction poses a number of aspects for decision makers to consider when choosing the ...
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Tips for selecting pre-engineered Cartesian robots
3 Steps to Design Your Linear Positioning System Cartesian robots operate in two or three axes along the Cartesian coordinate system of X, Y, and Z. While SCARA and 6-axis robots are more widely recognized, Cartesian systems can be found in nearly every industrial application imaginable, from semiconductor manufacturing to woodworking equipment. And it’s no surprise that Cartesians are so wide...
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What are Planar Errors and How Do They Affect the Accuracy of a Linear Motion System?
Linear, Angular and Planar Errors. In an ideal world, a linear motion system would exhibit perfectly flat, straight motion and reach the intended position with zero error every time. But even the highest precision linear guides and drives (screws, rack and pinions, belts, linear motors) have some errors due to machining tolerances, handling, mounting, and even the manner in which they’re appli...
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Swiss Army Knife for Industrial Automation
Common Applications for Linear Rail Guides Linear rails are the backbone of many industrial applications, providing low-friction guidance and high stiffness for loads that can range from just a few grams to thousands of kilograms. Their range of sizes, accuracy classes, and preloads make linear rails suitable for virtually any performance requirement. The reasons for using linear rail...
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Why Use Linear Guides and Ball Screws with Ball Chains?
Key Design Character for Your Linear Motion System One of the differences between radial ball bearings and recirculating ball linear guides has historically been that radial bearings typically use a cage to separate the balls and control their movement, whereas profiled rail guides did not. But in the early 2000’s, manufacturers of profiled rail bearings began introducing versions with ball ca...
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What are the Differences Between Plain and Rolling Linear Guides?
Make a Good Choice for Your Linear Positioning System A linear guide (or linear bearing) is a mechanical element that allows relative motion between two surfaces, with one surface supporting the other, and minimum friction between the two. There are two basic types of linear guides: plain and rolling element. While their general function is the same, their design and performance differ signifi...
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Three efficient ways to reduce maintenance costs for linear systems
Replacing a linear guide carriage or replacing a full carriage and rail assembly. Inadequate lubrication can cause bearing failure. But while lubrication is the most important maintenance factor in linear bearing life, there are other things that users can do to reduce maintenance costs and ensure they get the most life from a linear bearing, ball screw, or actuator. 【Look and listen】 Once t...
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What the World Would be Like if Palletizer Machines Didn’t Exist
Hello Automation, Goodbye Manual Palletizing Palletizer machines have become an essential part of automation, replacing human error and injury in manufacturing with efficiency and speed. In addition to such benefits, palletizers can handle environments that would otherwise be injurious to workers. Instead of requiring the hire of more laborers to do this work, many companies have adopted palle...
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4 Primary Application Parameters—Stroke, Load, Speed and Precision
Gone are the days when machine designers and builders had to choose between constructing their own linear system from scratch or settling for a limited range of pre-assembled systems that, in most cases, were an imperfect fit for their application. Manufacturers today offer systems based on a range of drive mechanisms—ball screws, belts, rack and pinions, linear motors, and pneumatics—with gui...
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How to design a linear-motion system?
High efficiency, accuracy and stiffness. The shortest path between two points is a straight line. But if you’re designing a linear-motion system, you’ll have to consider structural support, guides, drives, seals, lubrication, and accessories between points A and B. Whether you decide to design and build your system from scratch using standard parts or buy one that’s engineered for you, making ...
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Seven Key Parameters to Design an Optimal, Cost-effective Linear Motion System
Load, Orientation, Speed, Travel, Precision, Environment and Duty Cycle. Careful analysis of the application, including orientation, moment and acceleration, will reveal the load that must be supported. Sometimes, the actual load will vary from the calculated load, so engineers must consider the intended use and potential misuse. When sizing and selecting linear motion systems for assembly mac...
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Innovative Servo Drive Suppresses Vibrations
Suppressing Vibration Dramatically Reduces Settling Time. In a high-speed pick-and-place operation, settling time is the enemy of productivity. Speed is essential for high-volume assembly. However, speed also creates problems. In a pick-and-place operation, for example, moving quickly from side to side and stopping on a dime sets up vibrations. To pick or place a part with any kind of accuracy...
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Don’t overlook these factors when choosing a linear system
Movement Life Means a Lot. When sizing a linear system, the first application parameters that come to mind are probably travel, load, and speed. In addition, details about the load’s placement, the move profile, and the duty cycle are needed in order to accurately calculate the bearing’s useful travel life, which is the typical standard by which a linear system is evaluated. Although the trave...
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Three Easy Ways to Reduce Maintenance Costs for Linear Systems
【Look and Listen】 Once the system is installed, tuned, and run-in, pay attention to any changes in running smoothness or noise. Rough running can indicate excess contamination or damage to bearing surfaces, while an increase in running torque often signals extreme wear. Noise has several potential causes, but when dealing with ball or lead screw assemblies, misalignment of the end bearings i...
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Where Linear Motors Improve Designs: Application Example in Multi-axis Stage
A Robotic Control XYZ Gantry Machine-tool applications and the manufacture and assembly of semiconductor components account for more than half of all linear-motor use. That’s because linear motors are precise (albeit costly compared to other linear-motion options). Other applications for these relatively new motion components also include those that need fast and precise positioning or slow an...
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How Many Axes Should My Robot Have?
If you have already shopped for a robot you have probably already been confronted with the number of axes that are included in the robot. Perhaps, if you are new to the robotic world you may wonder: What this all means? and Why is it important how many axes my robot has? Robots will have 3 to 7 axes generally, so… What do you actually need? Here’s a little recap of the number of a...
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