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Allen-Bradley 20F1ANE192AN0NNNNN — Detailed Product Specifications, Product Introduction, Applications, Advantages and Related Models

1. Product Overview

The Allen-Bradley 20F1ANE192AN0NNNNN is a high-power PowerFlex 753 air-cooled AC drive designed for large three-phase industrial motor applications.

This model is rated for 600 VAC, three-phase operation and provides a continuous output-current class of 192 A. Its motor ratings are 200 HP for normal-duty applications and 150 HP for heavy-duty applications.

The drive uses a Frame 7 mechanical configuration and an open-type enclosure. It is designed to be installed as part of a properly engineered industrial control cabinet or electrical enclosure.

An important point about this particular catalog number is the AN configuration. Unlike the corresponding AA configuration, the 20F1ANE192AN0NNNNN does not include an internal dynamic-braking transistor. This distinction is important when selecting the drive for machinery that requires frequent or rapid deceleration.

The model includes AC input with precharge, no DC terminals, EMC filtering, removed CM jumper configuration, embedded I/O and a blank/no-HIM configuration.

With a 192 A output rating and 200 HP normal-duty capability, the drive is positioned toward the high-power end of the PowerFlex 753 family and is intended for substantial industrial equipment rather than small or compact machines.

Typical applications include large pumps, industrial fans, blowers, conveyors, mixers, agitators, cooling equipment, material-handling systems and large process machinery.

---

2. Brand and Product Series

Category	Specification
Brand	Allen-Bradley
Product Family	PowerFlex
Series	PowerFlex 753
Product Group	PowerFlex 750-Series
Product Type	Air-Cooled AC Drive
Configuration	753 AC Packaged Drive
Voltage Class	600 VAC
Input Phase	3 Phase
Output Phase	3 Phase
Output Current	192 A
Normal-Duty Rating	200 HP
Heavy-Duty Rating	150 HP
Frame	7
Cooling	Forced Air
Enclosure	Open Type
Embedded I/O	Yes
Dynamic Braking	None / No Internal DB Transistor
Input Type	AC Input with Precharge
DC Terminals	None
Filtering	EMC Filter
CM Jumper	Removed
HIM	Blank / No HIM

The PowerFlex 753 series is a high-performance industrial AC drive family intended for applications where motor speed, acceleration, deceleration and overall machine operation need to be controlled more precisely than with a conventional fixed-speed starter.

The 20F1ANE192AN0NNNNN represents one of the larger 600 VAC configurations in the family.

---

3. Exact Model Identification

Parameter	Specification
Model	20F1ANE192AN0NNNNN
Brand	Allen-Bradley
Series	PowerFlex 753
Product Type	Air-Cooled AC Drive
Voltage Class	600 VAC
Input Phase	3 Phase
Output Phase	3 Phase
Output Current	192 A
Normal-Duty Rating	200 HP
Heavy-Duty Rating	150 HP
Approx. Normal-Duty Power	149.2 kW
Approx. Heavy-Duty Power	111.9 kW
Frame	7
Cooling	Forced Air
Enclosure	Open Type
Dynamic Braking	None
Internal DB Transistor	No
EMC Filter	Yes
CM Jumper	Removed
Embedded I/O	Yes
HIM	Blank / No HIM
Input	AC with Precharge
DC Terminals	None
Approx. Height	881.5 mm
Approx. Width	430 mm
Approx. Depth	349.6 mm
Approx. Weight	72.6 kg

The 149.2 kW and 111.9 kW values are approximate conversions from the 200 HP and 150 HP ratings respectively.

For actual drive selection, the motor nameplate current and required duty rating should always take priority over a simple horsepower conversion.

---

4. Main Electrical Parameters

Electrical Parameter	Specification
Model	20F1ANE192AN0NNNNN
Voltage	600 VAC
Input Phase	3 Phase
Output Phase	3 Phase
Output Current	192 A
Normal-Duty Motor Rating	200 HP
Heavy-Duty Motor Rating	150 HP
Approx. Normal-Duty Power	149.2 kW
Approx. Heavy-Duty Power	111.9 kW
Input Configuration	AC Input with Precharge
DC Terminals	None
Frame Size	7
Cooling	Forced Air
Enclosure	Open Type
EMC Filter	Included
CM Jumper	Removed
Dynamic Braking	None
Embedded I/O	Included
HIM	Blank / No HIM

The 192 A rating is the key electrical characteristic of this drive.

It places the model in a high-power class suitable for large industrial motors and substantial mechanical equipment.

The drive can be used with both variable-torque and more demanding constant-torque applications, provided the actual motor current and duty requirements remain within the appropriate rating.

---

5. 600 VAC Three-Phase Configuration

The 20F1ANE192AN0NNNNN is a 600 VAC three-phase AC drive.

This configuration is intended for large industrial electrical systems where high-power three-phase motors are used.

The drive receives three-phase AC power and produces a controlled three-phase output for the motor.

The basic operating structure can be represented as:

Three-Phase AC Supply

↓

Input and Precharge Circuit

↓

DC-Link Power Section

↓

Power Switching Stage

↓

Variable-Frequency Three-Phase Output

↓

Large AC Motor

↓

Industrial Machine

The drive controls motor operation by regulating the electrical output delivered to the motor.

Depending on the application and control configuration, the motor can be accelerated, operated at variable speed and decelerated according to the requirements of the machine.

---

6. 192 A Output Current

The 192 A output-current rating makes this model suitable for large motor applications.

Compared with smaller PowerFlex 753 configurations, the 192 A model provides significantly greater motor-control capacity.

Potential applications include:

• Large centrifugal pumps
• Large process pumps
• Cooling-water pumps
• Large industrial fans
• Large blowers
• Heavy conveyors
• Bulk-material handling equipment
• Large mixers
• Large agitators
• Industrial ventilation
• Cooling equipment
• Large process machinery
• Utility equipment

The correct application should always be confirmed by comparing the drive’s current rating with the actual motor nameplate current.

---

7. 200 HP Normal-Duty Rating

The normal-duty motor rating is:

200 HP

This is approximately:

149.2 kW

The 200 HP normal-duty rating makes the model particularly appropriate for large variable-torque applications.

Examples include:

• Large centrifugal pumps
• Large fans
• Large blowers
• Cooling systems
• Air-handling systems
• Industrial ventilation
• Process circulation systems

A variable-frequency drive allows these machines to operate at speeds appropriate to actual process demand rather than simply running continuously at full speed.

---

8. 150 HP Heavy-Duty Rating

The heavy-duty motor rating is:

150 HP

which is approximately:

111.9 kW

Heavy-duty applications can place greater electrical and thermal demands on the drive.

Examples include:

• Heavy conveyors
• Mixers
• Agitators
• Material-handling machinery
• Process machinery
• High-load mechanical systems
• High-inertia machinery

When a machine operates with high torque, frequent acceleration or demanding mechanical loading, the heavy-duty rating becomes particularly important.

The motor full-load current must still be checked against the applicable drive rating.

---

9. Normal-Duty and Heavy-Duty Comparison

Characteristic	Normal Duty	Heavy Duty
Model	20F1ANE192AN0NNNNN	20F1ANE192AN0NNNNN
Motor Rating	200 HP	150 HP
Approx. Power	149.2 kW	111.9 kW
Typical Load	Variable Torque	Higher-Demand Load
Large Pump	Excellent	Very Good
Large Fan	Excellent	Very Good
Large Blower	Excellent	Very Good
Heavy Conveyor	Good	Excellent
Mixer	Good	Excellent
Agitator	Good	Excellent
High-Inertia Equipment	Requires Braking Evaluation	Requires Braking Evaluation

The distinction between normal duty and heavy duty is important.

A 200 HP motor in a relatively smooth variable-torque application is a different electrical and thermal application from a 150 HP motor operating with substantial constant torque, repeated acceleration or difficult mechanical loading.

---

10. Frame 7 Construction

The 20F1ANE192AN0NNNNN uses a Frame 7 construction.

Frame 7 is used for the higher-current configurations of the PowerFlex 753 600 VAC range.

The larger physical structure provides the necessary space for the power electronics, cooling system, electrical connections and associated components.

Compared with Frame 6, Frame 7 is significantly larger and heavier.

This means cabinet planning becomes especially important.

The installation should account for:

• Mounting space
• Cabinet dimensions
• Cooling airflow
• Cable routing
• Power-cable bending radius
• Control wiring
• Maintenance access
• Heat dissipation
• Mechanical support

---

11. Dimensions and Weight

The approximate Frame 7 drive dimensions are:

881.5 mm × 430 mm × 349.6 mm

with the orientation:

Height × Width × Depth

The approximate drive weight is:

72.6 kg

Mechanical Parameter	Specification
Model	20F1ANE192AN0NNNNN
Frame	7
Height	Approx. 881.5 mm
Width	Approx. 430 mm
Depth	Approx. 349.6 mm
Weight	Approx. 72.6 kg
Enclosure	Open Type
Cooling	Forced Air
Installation	Cabinet / Panel
Mounting	Industrial Enclosure

These dimensions should be treated as approximate Frame 7 drive dimensions for engineering and cabinet-planning purposes.

The final mechanical installation should allow additional space for wiring, ventilation, maintenance and safe access.

---

12. Open-Type Enclosure

The model uses an open-type enclosure.

This means the drive is generally intended to be installed within a suitable electrical cabinet or protected industrial enclosure rather than being exposed directly to the surrounding industrial environment.

The enclosure should protect the drive against:

• Water
• Condensation
• Excessive dust
• Conductive contamination
• Oil contamination
• Corrosive substances
• Mechanical impact
• Excessive heat

The cabinet should also provide appropriate ventilation and heat removal.

For a Frame 7 drive with a 192 A output rating, cabinet thermal design is especially important.

---

13. Forced-Air Cooling

The drive uses forced-air cooling.

Large power electronic components generate heat during operation.

The cooling system removes this heat and helps maintain acceptable operating temperatures.

The installation should therefore maintain adequate airflow.

Important factors include:

• Ambient temperature
• Cabinet temperature
• Cooling-fan operation
• Airflow direction
• Air inlet condition
• Air outlet condition
• Cabinet ventilation
• Dust accumulation
• Filter condition
• Heat generated by adjacent equipment

Poor airflow can cause excessive temperature rise and can shorten the service life of power electronic components.

---

14. EMC Filter

The model includes an EMC filter.

Electromagnetic compatibility is important in industrial environments because variable-frequency drives use high-speed power switching.

These switching operations can create high-frequency electrical noise.

The EMC filter forms part of the drive’s electrical-noise management configuration.

However, the overall installation should also pay attention to:

• Grounding
• Shielding
• Motor cable routing
• Control cable routing
• Separation between power and signal wiring
• Cabinet bonding
• Cable termination

A good drive configuration should always be combined with good installation practice.

---

15. CM Jumper Removed

The model specifies:

CM Jumper Removed

This configuration detail should not be overlooked during replacement or system comparison.

The common-mode configuration can influence electrical-noise behavior and grounding characteristics.

When replacing an existing drive, the replacement should be checked for the same configuration rather than assuming that all 600 VAC PowerFlex 753 drives are electrically identical.

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16. Dynamic Braking — Important Difference of the AN Model

One of the most important characteristics of the 20F1ANE192AN0NNNNN is:

Dynamic Braking: None

This means the model does not have the internal dynamic-braking transistor that is associated with the corresponding AA configuration.

This distinction is particularly important for high-inertia machines.

The model number contains the AN configuration rather than AA.

A simplified comparison is:

Feature	20F1ANE192AN0NNNNN	20F1ANE192AA0NNNNN
Voltage	600 VAC	600 VAC
Current	192 A	192 A
Normal Duty	200 HP	200 HP
Heavy Duty	150 HP	150 HP
Frame	7	7
EMC Filter	Yes	Yes
CM Jumper	Removed	Removed
Dynamic Braking	None	Internal DB Transistor
Cooling	Forced Air	Forced Air
Embedded I/O	Yes	Yes
HIM	Blank / No HIM	Blank / No HIM

The difference is therefore not the basic motor-power capacity.

The major configuration difference is the dynamic-braking provision.

For applications with rapid deceleration or high inertia, this distinction should be evaluated carefully before selecting the drive.

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17. What the Lack of Internal Dynamic Braking Means

The absence of an internal dynamic-braking transistor does not mean that the drive cannot control motor speed.

It means that the drive does not include the internal transistor arrangement used for a traditional external dynamic-braking resistor system.

For applications that require significant regenerative-energy handling during deceleration, the system designer should evaluate alternative braking or regeneration arrangements.

This is particularly important for:

• Large conveyors
• High-inertia fans
• Large mixers
• Large rotating equipment
• Rapid-stop machinery
• Repeated deceleration applications

The braking requirement should be calculated from actual machine inertia, operating speed, stopping time and frequency of braking events.

---

18. Embedded I/O

The 20F1ANE192AN0NNNNN includes embedded I/O.

This provides convenient interfaces for basic machine-control functions.

Depending on the control architecture, the drive can be integrated into a system using functions such as:

• Start
• Stop
• Enable
• Reset
• Run status
• Fault status
• Speed reference
• Basic interlocking
• Process feedback

Embedded I/O can reduce the need for additional external interface hardware for basic control requirements.

---

19. Blank / No HIM

The model uses a:

Blank / No HIM

configuration.

HIM means Human Interface Module.

A no-HIM configuration is particularly suitable for applications where the drive is installed inside a cabinet and is operated through a centralized control system.

A typical architecture could be:

Operator Interface

↓

Industrial Controller

↓

PowerFlex 753

↓

Large Motor

↓

Industrial Machine

This arrangement is common in larger automated production systems.

---

20. AC Input With Precharge

The input configuration is:

AC Input With Precharge

with:

No DC Terminals

The precharge circuit manages the initial charging process of the drive’s DC-link capacitors when power is applied.

The absence of DC terminals is an important configuration detail.

It means that this specific model should not be treated as a drive configuration intended for direct external DC-bus connection.

This should be considered when comparing it with other PowerFlex 753 configurations.

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21. Product Introduction

The 20F1ANE192AN0NNNNN is a large-capacity industrial variable-frequency drive designed to provide controlled operation of three-phase AC motors.

Its main purpose is to convert incoming AC electrical power into controlled variable-frequency output power.

This allows a large motor to operate according to the requirements of the machine rather than simply being switched between full speed and stopped conditions.

A typical operating sequence is:

Start Command

↓

Controlled Acceleration

↓

Variable-Speed Operation

↓

Process Adjustment

↓

Controlled Deceleration

↓

Stop

This type of control is valuable in industrial systems where process speed, mechanical stress and energy use need to be managed.

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22. Large Motor Control

The 192 A current rating makes the drive suitable for substantial industrial motors.

The drive can provide controlled motor operation in systems requiring:

• Variable speed
• Controlled acceleration
• Controlled deceleration
• Process speed adjustment
• Motor protection functions
• Automation integration
• Large motor control
• Production-speed regulation

The correct control mode and parameters depend on the motor and machine.

---

23. Large Pump Applications

Large pumps are one of the most suitable application categories for this drive.

Potential applications include:

• Industrial water pumps
• Cooling-water pumps
• Process pumps
• Water-transfer systems
• Wastewater systems
• Water-treatment systems
• Industrial circulation systems
• Cooling towers
• Large utility pumps

The 200 HP normal-duty rating makes the drive particularly suitable for large variable-torque pump applications.

---

24. Pump Speed Control

A large pump often does not need to operate continuously at maximum speed.

A variable-frequency drive allows the pump speed to follow process requirements.

For example:

Low Process Demand

↓

Reduced Motor Speed

↓

Reduced Pump Output

↓

Higher Process Demand

↓

Increased Motor Speed

↓

Increased Pump Output

This can provide more precise process control.

In suitable centrifugal-pump applications, variable-speed operation can also create significant energy-saving potential.

The actual energy-saving result depends on the pump curve, operating profile and process requirements.

---

25. Large Fan Applications

The drive can also be used for large industrial fans.

Typical applications include:

• Factory ventilation
• Industrial exhaust
• Large air-handling systems
• Cooling fans
• Furnace ventilation
• Dust collection
• Process ventilation
• Industrial HVAC
• Combustion-air systems

Variable-speed operation allows airflow to be adjusted according to actual process demand.

---

26. Large Blower Applications

Large blowers often require high motor power and continuous operation.

Potential applications include:

• Wastewater aeration
• Pneumatic conveying
• Process-air systems
• Industrial drying
• Combustion air
• Dust collection
• Industrial ventilation
• Air-pressure systems

The 192 A output capacity makes this model suitable for substantial blower systems when the motor’s electrical requirements are within the applicable drive rating.

---

27. Conveyor Applications

The drive can be used in large conveyor systems.

Potential applications include:

• Bulk-material conveyors
• Production conveyors
• Heavy industrial conveyors
• Transfer systems
• Material-handling systems
• Mining-related material handling
• Packaging systems
• Industrial logistics equipment

Controlled acceleration can reduce sudden mechanical loading on:

• Belts
• Couplings
• Gearboxes
• Shafts
• Bearings

Controlled deceleration can also help manage large amounts of stored mechanical energy.

However, because the AN model does not contain an internal dynamic-braking transistor, the braking strategy must be evaluated separately when fast stopping is required.

---

28. Large Mixer Applications

Large industrial mixers can require controlled speed changes.

A typical operating sequence may be:

Low-Speed Start

↓

Acceleration

↓

Mixing Speed

↓

Process Hold

↓

Controlled Deceleration

↓

Stop

The drive can provide the variable-speed operation needed for this type of process.

For high-inertia mixers, the absence of internal dynamic braking should be considered during system design.

---

29. Agitator Applications

Large agitators are used in many process industries.

Potential applications include:

• Water treatment
• Industrial processing
• Slurry handling
• Tank mixing
• Material blending
• Process chemistry
• Production systems

Variable-speed operation allows the agitator speed to be adjusted according to the process.

This can be useful when different stages of the process require different agitation levels.

---

30. Cooling Systems

The drive can be used in large cooling systems involving:

• Cooling pumps
• Cooling fans
• Circulation pumps
• Cooling towers
• Large air-handling systems
• Heat-exchanger systems

The drive can adjust motor speed according to temperature, pressure or flow requirements.

This makes it suitable for automated thermal-management systems.

---

31. Industrial Ventilation

Large industrial ventilation systems frequently experience changing airflow requirements.

Demand can vary with:

• Production rate
• Number of machines operating
• Temperature
• Pressure
• Process conditions
• Environmental requirements

A variable-speed drive can adjust fan speed according to actual demand.

This provides more flexibility than operating a large fan continuously at full speed.

---

32. Material Handling

Large material-handling systems can have:

• Heavy loads
• High inertia
• Long conveyor paths
• Frequent acceleration
• Variable production rates
• Controlled stopping requirements

The 192 A output capacity provides substantial motor-control capability for large material-handling machinery.

The braking strategy should be evaluated separately because this particular AN configuration does not have an internal dynamic-braking transistor.

---

33. Process Machinery

The drive can be used with many types of industrial process machinery.

Examples include:

• Production equipment
• Process pumps
• Large mixers
• Agitators
• Blowers
• Ventilation systems
• Cooling equipment
• Material-handling equipment
• Large rotating machinery

The drive can operate as a controlled motor-power stage within a larger industrial automation system.

---

34. Major Product Advantages

34.1 High 192 A Capacity

The 192 A output rating provides substantial capacity for large industrial motors.

It allows this model to control motors that are well beyond the range of compact industrial drives.

---

34.2 200 HP Normal-Duty Capability

The 200 HP normal-duty rating makes this model particularly suitable for large variable-torque applications.

Large pumps, fans and blowers are important examples.

---

34.3 150 HP Heavy-Duty Capability

The 150 HP heavy-duty rating provides a strong capacity level for demanding mechanical applications.

This makes the drive useful for equipment with greater torque requirements.

---

34.4 600 VAC Operation

The 600 VAC rating makes the drive suitable for high-power industrial motor systems.

---

34.5 Frame 7 Architecture

The Frame 7 design provides the physical structure necessary for high-current operation.

---

34.6 EMC Filter

The integrated EMC filtering supports electrical-noise management.

---

34.7 Embedded I/O

Embedded I/O provides convenient integration with industrial control systems.

---

34.8 Forced-Air Cooling

Forced-air cooling supports operation of the high-power electronic components when the installation provides sufficient airflow.

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34.9 Centralized-Control Friendly

The blank/no-HIM configuration works well where the drive is controlled from a centralized automation system.

---

34.10 Straightforward High-Power Configuration

The AN configuration provides a relatively straightforward high-power drive configuration without the internal dynamic-braking transistor.

This can be appropriate when the application does not require the internal DB option.

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35. Advantages for Pump Applications

The drive can provide:

• Adjustable speed
• Smooth startup
• Controlled operation
• Process-based flow adjustment
• Reduced mechanical shock
• Potential energy savings
• Centralized control
• Large-motor capability

For variable-torque centrifugal pumps, variable-speed control can be especially useful.

---

36. Advantages for Fan Applications

The drive can provide:

• Variable airflow
• Adjustable pressure
• Controlled acceleration
• Controlled operating speed
• Reduced mechanical stress
• Potential energy savings
• Automated process control

The ability to adjust speed according to actual ventilation demand can be valuable in large industrial facilities.

---

37. Advantages for Conveyor Applications

For large conveyors, the drive can provide:

• Controlled acceleration
• Smooth startup
• Variable operating speed
• Controlled speed regulation
• Centralized control
• Reduced mechanical shock

However, the braking system should be carefully designed for conveyors requiring rapid stopping because this AN configuration does not contain an internal dynamic-braking transistor.

---

38. Advantages for High-Power Industrial Systems

The 20F1ANE192AN0NNNNN is particularly useful where a large motor must be integrated into a larger automation system.

The drive can serve as the power-control interface between the industrial controller and the motor.

A typical system can be structured as:

Sensors

↓

Controller

↓

Speed / Start / Stop Command

↓

20F1ANE192AN0NNNNN

↓

Large AC Motor

↓

Machine

↓

Process Feedback

This architecture is suitable for large automated facilities.

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39. Energy-Saving Potential

Variable-frequency drives can provide energy-saving opportunities when used with suitable variable-torque loads.

The most relevant applications include:

• Centrifugal pumps
• Fans
• Blowers
• Cooling systems
• Air-handling equipment

Energy performance depends on the actual system.

Important factors include:

• Motor efficiency
• Operating hours
• Load profile
• Speed requirements
• Process demand
• Mechanical efficiency
• Control strategy

Therefore, energy savings should be calculated from the actual machine operating profile.

---

40. Controlled Acceleration

Large motors can produce considerable mechanical stress during startup.

The drive can provide a controlled acceleration profile.

A typical profile could be:

0 Hz

↓

10 Hz

↓

20 Hz

↓

30 Hz

↓

40 Hz

↓

Operating Speed

The exact acceleration time and curve depend on the application.

Controlled acceleration can help reduce:

• Mechanical shock
• Coupling stress
• Belt stress
• Gearbox loading
• Bearing stress
• Process disturbance

---

41. Controlled Deceleration

Deceleration requires special attention on large high-inertia machines.

When a motor decelerates, mechanical energy can be transferred back toward the drive’s DC bus.

Because the 20F1ANE192AN0NNNNN has no internal dynamic-braking transistor, the system designer should determine how this energy will be handled.

Depending on the application, possible approaches can include:

• Longer deceleration times
• Alternative braking arrangements
• Regenerative solutions
• Mechanical braking
• Other engineered energy-management methods

The correct solution depends on the machine.

---

42. Braking Considerations

When evaluating the 20F1ANE192AN0NNNNN for a machine with substantial inertia, consider:

• Motor horsepower
• Motor current
• Motor speed
• Machine inertia
• Load inertia
• Deceleration time
• Number of stopping cycles
• Required stopping accuracy
• Regenerative energy
• Ambient temperature
• Cabinet thermal capacity
• Mechanical brake requirements

The absence of internal dynamic braking is not a disadvantage for every application.

For machines that naturally decelerate slowly or do not require significant braking energy management, the AN configuration may be entirely appropriate.

---

43. Installation Considerations

A 192 A Frame 7 drive is a substantial electrical component.

The installation should be designed around:

• Input power
• Protective devices
• Grounding
• Motor cables
• Control cables
• EMC practices
• Cabinet ventilation
• Thermal management
• Cable routing
• Service clearance
• Mechanical support
• Motor compatibility

The approximate 72.6 kg weight should be considered when designing the mounting structure.

---

44. Cabinet Design

The approximate physical size is:

881.5 mm high

430 mm wide

349.6 mm deep

The approximate weight is:

72.6 kg

The cabinet should provide sufficient space for:

• Drive mounting
• Input power cables
• Motor cables
• Control wiring
• Ventilation
• Cooling airflow
• Maintenance
• Cable bending
• Adjacent components
• Heat dissipation

The cabinet structure should also be capable of safely supporting the drive.

---

45. Electrical Protection

The complete electrical installation should use appropriate protection based on the system design.

Important considerations include:

• Supply voltage
• Available fault current
• Input protection
• Cable ratings
• Grounding
• Motor current
• Protective-device coordination
• Cabinet design

The drive should not be selected based solely on horsepower.

Motor nameplate current is one of the most important parameters when determining whether a drive is correctly sized.

---

46. Motor Selection

Motor Parameter	Importance
Motor Voltage	Critical
Full-Load Current	Critical
Horsepower	Important
Frequency	Important
Rated Speed	Important
Torque	Critical
Duty Cycle	Critical
Motor Inertia	Important
Load Inertia	Important
Acceleration Time	Important
Deceleration Time	Critical
Braking Requirement	Critical
Ambient Temperature	Important
Installation Altitude	Important

The actual motor full-load current should be compared with the appropriate drive rating.

A motor’s horsepower rating by itself does not provide enough information for final drive selection.

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47. Maintenance Recommendations

Maintenance Area	Recommended Action
Cooling Fans	Inspect regularly
Airflow	Keep unobstructed
Cabinet Filters	Clean or replace as necessary
Power Connections	Inspect periodically
Grounding	Check periodically
Motor Connections	Inspect
Control Terminals	Check
Cabinet Interior	Keep clean and dry
Drive Temperature	Monitor
Fault History	Review
Mounting	Check mechanical security
Ventilation	Confirm adequate airflow
EMC Connections	Inspect
Cable Routing	Check for deterioration

Because this is a high-power Frame 7 drive, cooling and electrical connections deserve particular attention.

Dust accumulation can restrict airflow and increase operating temperature.

---

48. Preventive Maintenance

A practical maintenance program can be divided into three levels.

Routine Inspection

Check:

• Drive temperature
• Fan operation
• Airflow
• Cabinet condition
• Fault status
• Visible contamination

Periodic Inspection

Check:

• Power terminals
• Ground connections
• Motor cables
• Control terminals
• Cabinet filters
• Cooling system

Detailed Inspection

Review:

• Thermal performance
• Cooling effectiveness
• Fault history
• Electrical connections
• Cabinet ventilation
• Motor behavior
• Deceleration performance

Preventive maintenance can reduce the risk of unexpected downtime.

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49. Five Same-Series or Closely Related Models

The following models are closely related 600 VAC PowerFlex 753 configurations and provide a useful comparison around the 192 A model.

Model	Voltage	Output Current	Normal Duty	Heavy Duty	Frame	Dynamic Braking	Approx. Dimensions	Approx. Weight
20F1ANE125AN0NNNNN	600 VAC	125 A	125 HP	100 HP	6	None	665.5 × 308 × 346.4 mm class	Approx. 38.6 kg
20F1ANE144AN0NNNNN	600 VAC	144 A	150 HP	125 HP	6	None	665.5 × 308 × 346.4 mm class	Approx. 38.6 kg
20F1ANE192AN0NNNNN	600 VAC	192 A	200 HP	150 HP	7	None	881.5 × 430 × 349.6 mm	Approx. 72.6 kg
20F1ANE242AN0NNNNN	600 VAC	242 A	250 HP	200 HP	7	None	881.5 × 430 × 349.6 mm class	Approx. 72.6 kg
20F1ANE289AN0NNNNN	600 VAC	289 A	300 HP	250 HP	7	None	881.5 × 430 × 349.6 mm class	Approx. 72.6 kg

These models create a clear capacity progression around the 192 A model.

The 125 A and 144 A versions are Frame 6 products.

The 192 A, 242 A and 289 A versions move into the larger Frame 7 platform.

This makes the 192 A model a useful transition point between medium-large and very-large PowerFlex 753 applications.

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50. Same-Series Electrical Comparison

Model	Output Current	Normal Duty	Heavy Duty	Approx. ND Power	Approx. HD Power	Frame
20F1ANE125AN0NNNNN	125 A	125 HP	100 HP	93.3 kW	74.6 kW	6
20F1ANE144AN0NNNNN	144 A	150 HP	125 HP	111.9 kW	93.3 kW	6
20F1ANE192AN0NNNNN	192 A	200 HP	150 HP	149.2 kW	111.9 kW	7
20F1ANE242AN0NNNNN	242 A	250 HP	200 HP	186.4 kW	149.2 kW	7
20F1ANE289AN0NNNNN	289 A	300 HP	250 HP	223.7 kW	186.4 kW	7

This table shows the position of the 20F1ANE192AN0NNNNN very clearly.

It provides considerably more current capacity than the 144 A model while remaining below the 242 A and 289 A configurations.

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51. Five Same-Brand Related Popular Models

The following models provide useful comparisons across the broader Allen-Bradley PowerFlex family.

Model	Series	Voltage Class	Output Current	Normal Duty	Heavy Duty	Approx. Dimensions	Approx. Weight
25B-D1P4N104	PowerFlex 525	480 VAC class	1.4 A	0.5 HP	0.5 HP class	152 × 72 × 172 mm	Approx. 1.10 kg
25B-D6P0N114	PowerFlex 525	480 VAC class	6.0 A	3 HP	Application dependent	180 × 87 × 172 mm	Approx. 1.60 kg
25B-D017N104	PowerFlex 525	480 VAC class	17 A	10 HP	Application dependent	220 × 109 × 184 mm	Approx. 2.30 kg
25B-D030N114	PowerFlex 525	480 VAC class	30 A	20 HP	15 HP	260 × 130 × 212 mm	Approx. 3.20 kg
25B-D043N114	PowerFlex 525	480 VAC class	43 A	30 HP	25 HP	Frame E compact configuration	Approx. 4 kg class

These models are useful for understanding the broader PowerFlex range.

The PowerFlex 525 models are physically much smaller and are intended for lower-power applications.

They are not direct electrical replacements for the 20F1ANE192AN0NNNNN.

The 20F1ANE192AN0NNNNN belongs to the much higher-power PowerFlex 753 category and is intended for large industrial motor systems.

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52. Compact PowerFlex Comparison

Model	Series	Voltage Class	Current	Normal Duty	Heavy Duty	Frame	Approx. Dimensions	Approx. Weight
25B-D1P4N104	PowerFlex 525	480 VAC class	1.4 A	0.5 HP	Application dependent	A	152 × 72 × 172 mm	1.10 kg
25B-D6P0N114	PowerFlex 525	480 VAC class	6 A	3 HP	Application dependent	B	180 × 87 × 172 mm	1.60 kg
25B-D017N104	PowerFlex 525	480 VAC class	17 A	10 HP	Application dependent	C	220 × 109 × 184 mm	2.30 kg
25B-D030N114	PowerFlex 525	480 VAC class	30 A	20 HP	15 HP	D	260 × 130 × 212 mm	3.20 kg
25B-D043N114	PowerFlex 525	480 VAC class	43 A	30 HP	25 HP	E	Compact Frame E	Approx. 4 kg class

The size difference is substantial.

A PowerFlex 525 model can weigh only a few kilograms, while the 20F1ANE192AN0NNNNN is approximately 72.6 kg.

This reflects the enormous difference in power-handling capability.

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53. Recommended Model Selection by Capacity

Motor Requirement	Recommended Related Model
Around 125 HP ND	20F1ANE125AN0NNNNN
Around 150 HP ND	20F1ANE144AN0NNNNN
Around 200 HP ND	20F1ANE192AN0NNNNN
Around 250 HP ND	20F1ANE242AN0NNNNN
Around 300 HP ND	20F1ANE289AN0NNNNN

The 20F1ANE192AN0NNNNN is therefore positioned directly in the 200 HP normal-duty class.

It is a logical choice when the actual motor current requires more capacity than the 144 A configuration provides but does not justify moving to the 242 A configuration.

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54. Comparison With the 144 A Model

Feature	20F1ANE144AN0NNNNN	20F1ANE192AN0NNNNN
Voltage	600 VAC	600 VAC
Output Current	144 A	192 A
Normal Duty	150 HP	200 HP
Heavy Duty	125 HP	150 HP
Frame	6	7
Dynamic Braking	None	None
EMC Filter	Yes	Yes
CM Jumper	Removed	Removed
Cooling	Forced Air	Forced Air
Embedded I/O	Yes	Yes
HIM	Blank / No HIM	Blank / No HIM
Approx. Height	665.5 mm	881.5 mm
Approx. Width	308 mm	430 mm
Approx. Depth	346.4 mm	349.6 mm
Approx. Weight	38.6 kg	72.6 kg

The 192 A model provides a substantial increase in electrical capacity.

The transition from Frame 6 to Frame 7 is also important.

The larger frame means that replacing a 144 A drive with a 192 A drive may require cabinet modifications.

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55. Comparison With the 242 A Model

Feature	20F1ANE192AN0NNNNN	20F1ANE242AN0NNNNN
Voltage	600 VAC	600 VAC
Output Current	192 A	242 A
Normal Duty	200 HP	250 HP
Heavy Duty	150 HP	200 HP
Frame	7	7
Dynamic Braking	None	None
EMC Filter	Yes	Yes
CM Jumper	Removed	Removed
Cooling	Forced Air	Forced Air
Embedded I/O	Yes	Yes
HIM	Blank / No HIM	Blank / No HIM
Approx. Height	881.5 mm	Frame 7 class
Approx. Width	430 mm	Frame 7 class
Approx. Depth	349.6 mm	Frame 7 class
Approx. Weight	72.6 kg	Approx. 72.6 kg class

Both models belong to the large Frame 7 section of the 600 VAC PowerFlex 753 family.

The primary difference is current and horsepower capacity.

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56. Detailed Technical Parameter Table

Category	Parameter	Specification
Product	Model	20F1ANE192AN0NNNNN
Product	Brand	Allen-Bradley
Product	Series	PowerFlex 753
Product	Product Family	PowerFlex 750-Series
Product	Product Type	Air-Cooled AC Drive
Product	Configuration	753 AC Packaged Drive
Electrical	Voltage Class	600 VAC
Electrical	Input Phase	3 Phase
Electrical	Output Phase	3 Phase
Electrical	Output Current	192 A
Electrical	Normal-Duty Rating	200 HP
Electrical	Heavy-Duty Rating	150 HP
Electrical	Normal-Duty Power	Approx. 149.2 kW
Electrical	Heavy-Duty Power	Approx. 111.9 kW
Electrical	Input Type	AC Input with Precharge
Electrical	DC Terminals	None
Mechanical	Frame	7
Mechanical	Enclosure	Open Type
Mechanical	Height	Approx. 881.5 mm
Mechanical	Width	Approx. 430 mm
Mechanical	Depth	Approx. 349.6 mm
Mechanical	Weight	Approx. 72.6 kg
Cooling	Cooling Method	Forced Air
Filtering	EMC Filter	Yes
Grounding	CM Jumper	Removed
Braking	Dynamic Braking	None
Braking	Internal DB Transistor	No
Interface	Embedded I/O	Yes
Interface	HIM	Blank / No HIM
Input	Precharge	Yes
Input	DC Bus Terminals	None
Installation	Mounting	Cabinet / Panel
Installation	Enclosure Requirement	Protected Industrial Enclosure
Application	Normal-Duty Motor Class	200 HP
Application	Heavy-Duty Motor Class	150 HP
Application	Typical Loads	Pumps, fans, blowers, conveyors, mixers and process machinery

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57. Quick Parameter Summary

Parameter	Specification
Model	20F1ANE192AN0NNNNN
Brand	Allen-Bradley
Series	PowerFlex 753
Product Type	Air-Cooled AC Drive
Voltage	600 VAC
Phase	3 Phase
Output Current	192 A
Normal Duty	200 HP
Heavy Duty	150 HP
Normal-Duty Power	Approx. 149.2 kW
Heavy-Duty Power	Approx. 111.9 kW
Frame	7
Cooling	Forced Air
Enclosure	Open Type
EMC Filter	Yes
CM Jumper	Removed
Dynamic Braking	None
Internal DB Transistor	No
Embedded I/O	Yes
HIM	Blank / No HIM
Input	AC with Precharge
DC Terminals	None
Height	Approx. 881.5 mm
Width	Approx. 430 mm
Depth	Approx. 349.6 mm
Weight	Approx. 72.6 kg

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58. Application Suitability

Application	Suitability	Main Reason
Large Centrifugal Pump	Excellent	200 HP ND capacity
Large Cooling Pump	Excellent	High current capacity
Large Industrial Fan	Excellent	192 A output
Large Blower	Excellent	High motor capacity
Heavy Conveyor	Very Good	High current capacity
Bulk Material Handling	Very Good	Large motor capability
Large Mixer	Very Good	Variable-speed operation
Large Agitator	Very Good	Controlled speed
Cooling Tower	Excellent	Large pump/fan applications
Industrial Ventilation	Excellent	Variable-speed operation
High-Inertia Machinery	Requires Braking Evaluation	No Internal DB
Rapid-Deceleration Machinery	Requires Additional Evaluation	No Internal DB
Small Motor	Poor Choice	Excessive capacity
Compact Machine	Poor Choice	Large Frame 7 construction

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59. Product Selection Advantages

The 20F1ANE192AN0NNNNN has several practical advantages when it is correctly matched to an application.

First, its 192 A output rating gives it substantial capacity for large industrial motors.

Second, the 200 HP normal-duty rating makes it particularly attractive for large variable-torque equipment such as pumps, fans and blowers.

Third, the 150 HP heavy-duty rating allows it to handle demanding applications within the applicable heavy-duty limits.

Fourth, the 600 VAC three-phase configuration makes it suitable for large industrial electrical systems.

Fifth, the Frame 7 platform provides the physical capacity needed for the higher-current range.

Sixth, the embedded I/O simplifies integration with industrial control systems.

Seventh, the EMC filter supports electrical-noise management.

Eighth, the blank/no-HIM configuration is useful for centralized automation architectures.

Ninth, the AN configuration does not include an internal dynamic-braking transistor, which can be appropriate for applications that do not require that feature and can simplify selection where dynamic braking is unnecessary.

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60. Important Advantage of the AN Configuration

The absence of the internal dynamic-braking transistor should not automatically be considered a disadvantage.

For applications with:

• Long deceleration times
• Low-inertia loads
• Naturally decelerating equipment
• Limited stopping frequency
• No requirement for rapid stopping

the internal braking transistor may not be necessary.

In these situations, the AN configuration can provide the required variable-speed drive functionality without the internal DB option.

The key is to match the drive configuration to the machine rather than automatically choosing a drive with every possible option.

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61. Important Limitation

The main configuration limitation is the absence of internal dynamic braking.

If the machine has:

• High inertia
• High rotational speed
• Short stopping time
• Frequent stopping
• Repeated deceleration
• Significant regenerative energy

then the braking strategy must be evaluated carefully.

The correct solution may require an alternative energy-management or braking arrangement.

This should be determined during system engineering rather than after the drive has already been installed.

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62. Large Pump System Example

A large pump installation could be arranged as:

Process Sensor

↓

Controller

↓

Speed Reference

↓

20F1ANE192AN0NNNNN

↓

200 HP-Class Motor

↓

Large Pump

↓

Process System

The controller can adjust motor speed according to pressure, flow or process requirements.

When demand is lower, the motor can operate at a lower speed.

When demand increases, the speed can be increased.

This gives the process greater flexibility.

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63. Large Fan System Example

A large industrial fan can be controlled using:

Temperature / Pressure Sensor

↓

Controller

↓

Speed Command

↓

20F1ANE192AN0NNNNN

↓

Large Fan Motor

↓

Industrial Airflow

This allows ventilation to respond to actual process requirements.

For variable-torque fan applications, this can also provide energy-saving potential.

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64. Conveyor System Example

A large conveyor can use:

Start Command

↓

Controlled Acceleration

↓

Operating Speed

↓

Production Operation

↓

Stop Command

↓

Controlled Deceleration

↓

Stop

The drive provides the speed-control function.

However, if the conveyor must stop quickly, the lack of an internal dynamic-braking transistor must be considered during the design stage.

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65. Mixer System Example

A large mixer can use:

Start

↓

Low-Speed Operation

↓

Controlled Acceleration

↓

Mixing Speed

↓

Process Hold

↓

Controlled Deceleration

↓

Stop

The drive allows the motor speed to be adjusted according to the process.

If the mixer has high inertia, the deceleration energy should be evaluated before finalizing the drive configuration.

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66. Cooling-System Example

A large cooling system can use the drive to control:

• Cooling pumps
• Large fans
• Circulation pumps
• Cooling towers
• Air-handling equipment

A controller can adjust the drive according to:

• Temperature
• Pressure
• Flow
• Process demand

This creates a flexible automated cooling system.

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67. Industrial Automation Integration

The drive can function as part of a larger industrial automation architecture.

A typical arrangement is:

Field Sensors

↓

Controller

↓

Drive Command

↓

PowerFlex 753

↓

Motor

↓

Machine

↓

Process Feedback

The embedded I/O supports basic drive integration.

The blank/no-HIM configuration also makes the model suitable for systems where operators interact with the machine through a centralized control interface.

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68. Installation Checklist

Item	Requirement
Supply Voltage	Confirm 600 VAC system
Phase	Confirm three-phase supply
Motor Voltage	Confirm compatibility
Motor Current	Confirm against drive rating
Motor Duty	Confirm ND / HD requirement
Frame	Allow Frame 7 space
Cabinet	Suitable protected enclosure
Cooling	Adequate forced-air ventilation
Grounding	Properly engineered
EMC	Correct cable and grounding practices
Motor Cable	Correctly rated
Control Cable	Properly separated from power wiring
Braking	Evaluate separately
Mounting	Support approximately 72.6 kg
Service Clearance	Provide adequate access
Ambient Conditions	Confirm acceptable range

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69. Maintenance Checklist

Area	Inspection
Cooling Fan	Verify operation
Airflow	Check for blockage
Cabinet Filter	Clean or replace
Power Terminals	Inspect
Motor Terminals	Inspect
Grounding	Inspect
Control Wiring	Inspect
Cabinet Interior	Keep clean
Temperature	Monitor
Fault History	Review
Mounting	Check
Ventilation	Verify
EMC Connections	Inspect
Motor Operation	Monitor

Regular maintenance is especially important for a large Frame 7 drive.

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70. Overall Product Assessment

The Allen-Bradley 20F1ANE192AN0NNNNN is a high-power PowerFlex 753 air-cooled AC drive designed for large industrial three-phase motor applications.

Its main electrical configuration is:

600 VAC

3 Phase

192 A

200 HP Normal Duty

150 HP Heavy Duty

Frame 7

The approximate physical dimensions are:

881.5 mm × 430 mm × 349.6 mm

with an approximate weight of:

72.6 kg

The drive uses forced-air cooling and an open-type enclosure.

It includes an EMC filter, removed CM jumper configuration, embedded I/O, AC input with precharge, no DC terminals and a blank/no-HIM configuration.

The most important characteristic distinguishing this model from the corresponding AA configuration is the braking arrangement.

The 20F1ANE192AN0NNNNN has no internal dynamic-braking transistor.

This makes it important to evaluate the machine’s deceleration requirements before selecting it.

For large pumps, fans, blowers and other variable-torque equipment with moderate deceleration requirements, this configuration can be a very practical high-power drive.

For conveyors, mixers and high-inertia rotating machinery, the drive can still be used, but the braking and regenerative-energy strategy needs to be considered separately.

The 192 A output rating provides considerable motor-control capacity.

The 200 HP normal-duty rating makes the model particularly suitable for large variable-torque systems.

The 150 HP heavy-duty rating provides a strong capacity level for more demanding applications.

The Frame 7 construction reflects the high-power nature of the product and should be considered carefully during cabinet design.

At approximately 72.6 kg, the drive requires appropriate mechanical support.

Its approximate dimensions of 881.5 × 430 × 349.6 mm also mean that cabinet space should be planned carefully.

The forced-air cooling system requires adequate ventilation.

The cabinet should therefore provide sufficient airflow and heat-dissipation capacity.

For large industrial pump systems, the drive can provide controlled speed and process-based flow adjustment.

For large fan systems, it can provide variable airflow and pressure control.

For blowers, it can regulate process-air delivery.

For conveyors and material-handling systems, it can provide controlled acceleration and variable operating speed.

For mixers and agitators, it can provide adjustable motor speed for different stages of the process.

The embedded I/O allows the drive to participate in a larger control architecture.

The blank/no-HIM configuration is particularly suitable for centralized control systems where the drive does not need a permanently installed local operator interface.

Overall, the 20F1ANE192AN0NNNNN is best viewed as a large-capacity 600 VAC PowerFlex 753 drive for approximately 200 HP normal-duty applications, with a strong emphasis on high-current motor control and industrial automation integration.

Its key strengths are its 192 A output capacity, 200 HP normal-duty rating, 150 HP heavy-duty rating, 600 VAC three-phase architecture, Frame 7 construction, embedded I/O, EMC filtering, forced-air cooling and centralized-control compatibility.

The key configuration point to remember is simple:

AN = No Internal Dynamic-Braking Transistor

Therefore, when the machine requires significant braking energy management, the braking system should be evaluated as a separate engineering requirement.

For applications that do not require internal dynamic braking, however, this configuration provides a straightforward and capable high-power variable-frequency drive solution for large industrial motor systems.