LMSS Series Continued

Air Bearing Motor

Cleaning the Forcer and Platen

Prior to placing the Forcer on the Platen both surfaces must be cleaned.

Use this method:

1.Apply masking tape to lamination surface of the Forcer. Removing the tape removes large particle contaminants.

2.Using alcohol, clean both surfaces to remove any adhesive residue and any other contaminants on the Forcer and the Platen.

Note: Apply small amount of alcohol to cloth for cleaning. Never pour or drip alcohol or other chemicals onto the forcer or platen surfaces.

3.Wax and polish Platen and Forcer surfaces. ( Turtle Wax ). Remove any visible residue.

Cleaning the Air Bearings Required if the forcer is not lifting between 0.0005″ – 0.001″ ( i.e. rubbing on the Platen ).

1.Using a small screw driver, unscrew one air bearing.

2.Blow compressed air through the bearing in both directions.

3.Screw the air bearing back to its original position.

Note: Do not mix the air bearings, they have to be installed at their original position.

Installation:

Mounting the Forcer on the Platen

 

1.

Before placing the forcer on the platen be sure there is at least 60 psi of

 

 

regulated and filtered air flowing through the forcer.

 

2.

At one end of the platen, carefully slide the Forcer onto the Platen.

 

 

(BE EXTREMELY CAREFUL ).

 

Removing the Forcer from the Platen

 

1.

Before moving the forcer, be sure there is at least 60 psi of regulated and

 

 

filtered air flowing through the forcer.

 

2.

Carefully slide the Forcer to one end of the Platen and remove it.

 

 

(Be Extremely Careful).

MaintenanceWaxing of the Forcer lamination for corrosion protection is recommended every month (or sooner) depending on environmental conditions (i.e. humidity and moisture).

Operation Considerations The motor must always be operated within the specified operating parameter limits. Exceeding those limits will permanently damage the motor.

The forcer must never touch the platen during operation. Equal horizontal and vertical air gap must be maintained.

The following steps must be completed to ensure safe and proper operation.

1.Verify that all electrical wiring and cables are properly connected. Refer to the manual provided with the control for this information.

2.Adjust the stepper driver current to match the motor’s current specification.

3.Strain relieve the wires prior to operating.

LD9145A00 9 pin Female to flying leads

 

LD9147A00 25 pin Female to flying leads

 

Color

Pin#

Description

Color

Pin#

Description

Color

Pin#

Description

Red

1

A+ Winding

Red

1

1A+ Winding

Red

14

2A+ Winding

Green

2

A– Winding

Green

2

1A– Winding

Green

15

2A– Winding

Yellow

3

B+ Winding

Yellow

3

1B+ Winding

Yellow

16

2B+ Winding

Orange

4

B– Winding

Orange

4

1B– Winding

Orange

17

2B– Winding

Black

5

Ground

Blue

5

1C+ Winding

Black

18

2C+ Winding

Blue

6

C+ Winding

Green

6

1C– Winding

Blue

19

2C– Winding

Green

7

C– Winding

White

7

1D+ Winding

Green

20

2D+ Winding

White

8

D+ Winding

Black

8

1D– Winding

White

21

2D– Winding

Black

9

D– Winding

Black

13

1Ground

Black

13

2Ground

Use twisted pairs, shield is open at backshell.

Use twisted pairs, shield is open at backshell.

2-14 Installation & Operation

MN1800

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Baldor iMN1800 manual Lmss Series, Air Bearing Motor Cleaning the Forcer and Platen, Removing the Forcer from the Platen

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.