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Linear Shaft Motor servos and electronics to solve your machining problems

Linear Shaft Motor servos and electronics to solve your machining problemsDesign engineers run up against all kinds of issues when designing a new application – ensuring the motors meet force and size requirements, making sure the electronics to run the application are well-designed, and keeping costs down, just to name a few – and Nippon Pulse has made it our goal to help “ease the pain” of common machining concerns, with help from our patented Linear Shaft Motor and our dynamic electronics.


The four torque characteristics associated with stepping motors

The four torque characteristics associated with stepping motorsWhen choosing a stepper motor, it is important to understand four torque characteristics: pull-out torque, pull-in torque, holding torque and detent torque.


Linear Shaft Motor vs. Other Linear and Rotary-to-Linear Technologies

Linear Shaft Motor vs. Other Linear and Rotary-to-Linear TechnologiesA short overview of the benefits of using a Linear Shaft Motor servo in place of other popular linear motor options, as well as benefits over conventional rotary-to-linear systems.


How to choose a servo controller for your application

How to choose a servo controller for your applicationWhen it comes to developing a new application, you have many options for control: all-in-one controller boxes, integration-ready boards, and ASIC chips for complete customization. What factors should be taken into consideration when selecting a motion controller option?


Force-current relationship important when using linear motion for part production

Force-current relationship important when using linear motion for part productionA basic need of the machine design is to be able to go to a position, and knowing where that position is relative to the workpiece. In looking at achieving accuracy in the movement of a workpiece or the tooling, there are three areas of the machine design: the mechanical components, the command and control of the movement (control boards and servo loop), and the translation mechanism (linear motor or rotary motor and ball screw). This article is focused on one aspect of translation, specifically the force generated by linear electric motors.


Linear Motor Systems: Iron Core, U-Channel and Tubular Linear Motors

Linear Motor Systems: Iron Core, U-Channel and Tubular Linear MotorsThere are three main direct drive linear motion systems on the market today. These three motor types have distinct advantages and disadvantages and, based on the application, one motor will be better suited than either of the other motors. This white paper will present the basic mechanism of operation of these three linear motors along with the advantages and disadvantages of each.


Using a Dedicated Pulse Control LSI vs. a CPU for Motion Control

Using a Dedicated Pulse Control LSI vs. a CPU for Motion ControlIn order to operate a motor, you need a device or circuit that produces a speed and direction signal. In many cases, a CPU or FPGA device is used to create movement, because technically these devices can be programmed to generate pulses. However, no serious engineer should consider using these for important motion control applications, unless they are okay with a "good enough" mentality when it comes to their application's movement.

A pulse control LSI (motion control IC, ASIC) is a dedicated chip that is specialized for motion control. It is very easy to design programs when you use a convenient motion control-specific tool like a pulse control LSI. By choosing a pulse control LSI, you can easily write setting data and commands for both linear and S-curve acceleration/deceleration without overloading the CPU. When you consider CPU and engineering resource costs, ease of use, and speed of development, the end user benefits greatly from the specialized motion control option.


Linear Shaft Motor 50 Percent More Efficient than Coreless Linear Servos

Linear Shaft Motor 50 Percent More Efficient than Coreless Linear ServosLinear motors have gained a name for themselves as being a high-precision and power-efficient alternative to conventional rotary-to-linear transmission systems. How is this possible? Well, let's look at the Ball Screw, which also can be considered, in its own right, a high precision rotary-to-linear transmission system. The Ball Screw is typically only 90 percent efficient[1]. When we add the efficiency of the servo motor (range from 75 to 80 percent[2]) and losses that will be introduced by the coupling (and if using a gear box), it is possible that only 55 percent of the power we are supplying is going towards work. When we compare the typical linear motor, where the motor is driving the load linearly, we can quickly see why the linear motor has gained a name as being more power-efficient.


Linear Shaft Motors in Parallel

With the Linear Shaft Motor, you have the ability to drive two motors in parallel using only one encoder and one amplifier. All other systems require two drives, two controllers and two encoders, connected together. How is the Linear Shaft Motor able to overcome these issues?


Basics of Servomotor Control

This document explains the difference between a servomotor and a stepper motor when connected to a servo driver. It covers the terms used in controlling the pulse train that is supplied to the servomotor by a PCL series controller. It does not, however, explain the principles of operation or the design of the motors or drivers.


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