Baldor iMN1800 manual Lmbl Series, Brushless Linear Iron Core Servo Motor Installation

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LMBL Series

Brushless Linear Iron Core Servo Motor

Installation

Refer to Figure 2-1.

1.Install the magnet assembly onto the machine mounting base.

2.With the slide assembly removed from the rails, install the coil assembly onto the slide, tightening the mounting screws.

3.Place a non–magnetic shim over the magnets, sized to cover all the magnets.

(The shim thickness must be equivalent to the air gap specification. The normal air gap is 0.030″ ± 0.005″ unless otherwise specified).

4.Install and push the slide along the rails, positioning the coil assembly directly over the shim.

(An alternate method is to install the slide on a set of rails that is identical to the one being used. Butt the temporary rails to the system rails and transfer the slide onto the system rails.)

For either method, it is extremely important to uniformly tighten the mounting screws. Improper tightening will bend the primary or secondary and damage the motor.

If there is not enough space to install the coil assembly as described, use this alternate procedure.

Alternate Installation Refer to Figure 2-1.

1.Place the non–magnetic shim on the magnet track.

2.With a firm grip on the coil assembly, place one end of it on the shim and slide it into place, centered over the magnets. Be careful not to let the magnet and coil “Slam” together.

3.Align the fastening screw holes on the slide with the holes on the coil assembly.

4.Loosely install all the mounting screws.

5.Insert enough shims between the slide and the coil assembly to fill the gap.

6.Tighten all the mounting screws, alternating in a systematic manner while tightening such that the coil assembly is drawn–up evenly leaving a uniform air gap between the coil assembly and the magnets. This air gap must be maintained along the entire length of the magnet assembly i.e.; the coil assembly must never touch the magnets at any point when moving along the length of the magnet assembly and the air gap specification must be maintained at all times.

7.Remove the shim that sets the air gap prior to operation.

Figure 2-1 Air Gap Adjustment

Slide

Shim

 

 

 

Coil Assembly

(if necessary)

 

 

Rail

Air Gap (0.30 ±

0.005)

 

 

Magnet

Base

2-4 Installation & Operation

MN1800

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Contents MN1800 Linear MotorsTable of Contents Ii Table of Contents MN1800 Indicates a condition that can cause damage to equipment Limited WarrantyOverview Attempt to install operate or maintain this equipment Lifting, installing, operating and maintaining operationsInstallation, operation and maintenance of this equipment Do not apply AC power before you ensure that all groundingHandling ReceivingStorage UnpackingGeneral Information MN1800 Mounting a Stage to the Machine Base and Payload To Stage Clean RoomLocation Lmac Linear Induction Motor Lmac Connection DiagramLmbr Series Brush DC Linear Servo Motor Lmbl Series Brushless Linear Iron Core Servo Motor InstallationAlternate Installation Refer to Figure Motor Cable Hall Cable Limit Cable AY1763A00 Leadwire ConnectionWire Color Modular Magnet Track Installation Hall Cable Limit Cable Brushless Linear Iron Core Servo Motor Modular Magnet TrackAir Gap Spacing Lmcf Series Brushless Linear Cog Free Servo MotorPin# Color Lmnc Moving Coil TypeLmnm Moving Magnet Type Non Commutated DC Linear Servo Motor Double Holding SwitchingLmpy Series Polynoid Linear Motor Holding Option Single HoldingPolynoid Linear Motor Holding Option Leadwire ConnectionMotor Cable Signal Name Wire Color Lmpy SeriesLmss Series Linear Stepper Adjust Air GapMaintenance AY0165A00 Leadwire Connection 9 pin to flying leadsRemoving the Forcer from the Platen Air Bearing Motor Cleaning the Forcer and PlatenInstallation Mounting the Forcer on the Platen Lmss SeriesItems Required but not Included Lmds Series Dual Axis Linear Stepper MotorUnpacking Stage Specifications DisclaimerPositioning Stages Bearing type Stage specificationsLSE Series Enclosed Position Stage General Description ConstructionAY1779A00 LSE with Renishaw Encoder RGH24 Flying Leads LD9124A00 Limit and Home, Axis 1, Internal Pin# Color LD9125A01 Limit only Color Pin# DescriptionLD9137A01 Limit only Color Pin# Description LSE Stage Connector Locations LSC Series Cross Roller Position Stage General Description AY1775A00 Leadwire Connection for LinDrive 15 pin LD9125A02 H-Limit and Home Color Pin# Description AY1759A00 Renishaw RSF Encoder LSS Series Single Bearing Position StageAY1802A00 Stages with Renishaw Encoder RSF Flying Leads AY1801A00 Stages with Renishaw Encoder RGH22 Flying LeadsLD9114A00 Leadwire Connection LD9103A00LXS Connections Female LinDrive Connections Male Pin D Sub Male Motor / Limit Connections Pin Circular Connector MalePin D Sub Female LD9137A02 Limit and Home LSX Leadwire Connection Limit Switch PigtailsLD9119A01 Color Pin# Description LD9119A02 Color Pin# DescriptionPin Encoder Connections Pin Encoder ConnectorCross Roller Type Bearing Bearing Maintenance Recirculating Bearing Rail And BlockColor Description Function Encoder MaintenanceTechnical Data RSF Series MSA6x Enclosed TypeRSF Series MS6x Open Type Glass Scale Renishaw RGH22 series Open Type Metal Scale Associated Components Renishaw RGH22 series Open Type Metal Scale SpecificationsElgo Mix 4 series Magnetic Type Encoder Head Output Connector Pin AssignmentElgo Mix 5 series Magnetic Type Mix 4 and Mix 5 Dial Settings Resolution using 4x multiplierRequirements Encoder SpecificationsCables and Cable Chain Procedures Additional Cables  Baldor Electric Company MN1800 01 C&J1500 Baldor Electric Company

iMN1800 specifications

The Baldor iMN1800 is a comprehensive industrial motor drive, engineered for a wide range of applications in various sectors such as manufacturing, robotics, and automation. This drive exemplifies Baldor's commitment to innovation, performance, and efficiency, offering users advanced features that cater to modern industrial demands.

At the heart of the iMN1800 is its state-of-the-art motor control technology, designed to provide precise control over motor speed and torque. This is achieved through a sophisticated algorithm that adjusts the motor's performance in real-time, ensuring reliability and efficiency. The iMN1800 is compatible with various forms of electric motors, including AC induction and permanent magnet synchronous motors, making it versatile for numerous applications.

One of the standout features of the Baldor iMN1800 is its energy efficiency. It complies with various energy standards, which not only helps reduce operational costs but also minimizes the environmental impact associated with industrial operations. With an impressive efficiency rating, the iMN1800 contributes to lower energy consumption, making it an economically viable solution for businesses aiming to enhance sustainability.

In terms of connectivity, the iMN1800 incorporates advanced communication protocols such as Ethernet/IP and Modbus, allowing for seamless integration into existing industrial networks. This feature facilitates real-time monitoring and control, empowering operators to make informed decisions based on live data. The user-friendly interface enables quick access to essential parameters for both configuration and diagnostics, ensuring ease of use for technicians and engineers alike.

Moreover, the iMN1800 is built with robust construction materials, ensuring durability in demanding environments. Its rugged design allows it to withstand harsh conditions, including high temperatures and vibrations, common in industrial settings. This reliability contributes to reduced downtime and maintenance costs, promoting a more productive work environment.

The Baldor iMN1800 also features advanced safety mechanisms, including overload protection and short-circuit protection, guaranteeing the safety of both personnel and equipment. These attributes align with modern safety standards, making it a trusted choice for industries that prioritize workplace safety.

In summary, the Baldor iMN1800 is a top-tier industrial motor drive that combines advanced motor control technology, energy efficiency, robust construction, and enhanced safety features. Its flexibility and connectivity make it a valuable asset for diverse industrial applications, ultimately driving operational efficiency and effectiveness.