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  • Bonfiglioli EVO200280738 Drive Assembly
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  • Bonfiglioli EVO200280738 Drive Assembly

    • ¥18569.00
      ¥19976.00
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    Weight:1.860KG
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    • (Inventory: 63)
Description
<span style="font-size: 18px; font-family: arial;">Bonfiglioli EVO200280738 Drive Assembly</span>

Bonfiglioli EVO200280738 Drive Assembly

Product Overview

The Bonfiglioli EVO200280738 is an industrial drive assembly identified by code JD00001141 and configuration A202 UH30 92.3. It is designed to form part of a motor-driven power transmission system where speed, torque, and mechanical interface must be matched to the machine. The assembly belongs to a modular drive concept that supports adaptation to different installation layouts and operating requirements. Its identification codes allow the correct configuration to be confirmed during planning, replacement, and service.

This drive assembly is intended for professional integration into industrial machinery. The surrounding design must consider input power, output load, mounting position, shaft alignment, lubrication, and environmental protection. Correct selection depends on the actual duty cycle and the mechanical characteristics of the driven equipment. The assembly should be handled and installed according to technical documentation so that performance and service life are maintained.

Construction and Mechanical Role

The EVO200280738 assembly is built around a mechanical power transmission structure that connects a drive source to the driven machine. Its configuration code A202 UH30 92.3 identifies specific interface and arrangement details. The housing, bearings, shafts, and sealing elements are selected for industrial duty. The design supports stable torque transmission and contributes to alignment between connected components. Mounting surfaces must be clean, flat, and sufficiently rigid to avoid distortion.

Mechanical installation should avoid excessive axial and radial loads that are outside the intended design. Couplings, belts, pulleys, or other transmission elements must be aligned carefully. Forced fitting of shafts or improper tightening can damage bearings and seals. The assembly should be protected from impact during handling. If the unit is stored before installation, it should be kept in a dry and protected location, and preservation measures should be checked before commissioning.

Configuration and Interface Planning

The identification EVO200280738 with JD00001141 and A202 UH30 92.3 should be used when confirming the correct drive configuration. Interface planning includes shaft dimensions, flange or foot mounting, rotational direction, load capacity, and connection to the motor or machine. The designer should verify that the torque and speed required by the application fall within the intended operating range. Any additional components such as couplings, guards, and torque arms must be selected to match the assembly.

The surrounding structure should provide access for inspection, lubrication, and service. Drain and fill points, if present, must remain accessible. Guards should protect rotating parts without restricting cooling. The installation should consider thermal expansion and vibration. Alignment should be checked after the machine is fully assembled and again after initial operation, because settlement or thermal changes can affect the drive train.

Installation and Commissioning

Commissioning begins with a complete inspection of the mechanical installation. Fasteners should be tightened to the specified torque, shafts should rotate freely by hand where possible, and seals should be checked for damage. Lubrication condition should be confirmed according to the technical instructions. The motor direction and control sequence should be verified before the machine is connected to process load. During first runs, unusual noise, vibration, or temperature rise should be investigated immediately.

Electrical and control integration must respect the requirements of the motor and the machine safety system. Start and stop commands, overload protection, emergency stop, and guards must be coordinated. The drive assembly should not be used outside its intended environmental limits. If the machine is subject to frequent starts, reversing, or shock loads, the duty cycle should be reviewed with the drive train design. A commissioning record helps support future maintenance and troubleshooting.


Operation and Monitoring

During normal operation, the drive assembly should run smoothly and within the designed speed and torque range. Operators should watch for changes in noise, vibration, temperature, and power consumption. These signs can indicate misalignment, lubrication problems, wear, or overload. The assembly should be kept clean and free from accumulated debris that could affect cooling or sealing. Any abnormal condition should be corrected before it leads to damage.

Process changes can affect the drive train. Increased throughput, higher load, different material properties, or modified machine settings may alter the required torque. The operator should confirm that the drive assembly remains suitable after such changes. If the machine is controlled by an inverter or servo system, acceleration and deceleration ramps should be set to avoid excessive mechanical stress. Load limits and protective functions should remain active.

Protection and Reliability

Reliability depends on correct mechanical alignment, suitable lubrication, and protection from contamination. Seals should be inspected for leakage or ingress. Bearings should be monitored for abnormal noise or temperature. Couplings and fasteners should be checked for wear or loosening. Excessive vibration can reduce bearing life and affect the driven machine, so its cause should be identified. The assembly should not be exposed to water, dust, or corrosive substances beyond its intended protection level.

Overload protection is part of the machine design, not only the drive assembly. Torque limits, current protection, and mechanical overload devices should be coordinated. If a jam or blockage occurs, the system should stop before mechanical stress becomes excessive. Maintenance personnel should use the correct tools and replacement parts. Opening the assembly without proper instructions can affect sealing, bearing preload, and safety.

Maintenance and Service

A maintenance plan should include periodic inspection, cleaning, lubrication checks where applicable, and verification of fasteners. The interval depends on operating hours, load, temperature, and environment. In dusty or wet conditions, inspections should be more frequent. Oil or grease condition should be checked according to technical requirements. If lubricant replacement is specified, the correct type and quantity must be used. Mixing incompatible lubricants should be avoided.

Service work should begin only after the machine is isolated and secured against rotation. The drive train should be allowed to cool where necessary. Replacement of bearings, seals, or shafts requires proper tools and workshop conditions. After service, alignment and rotation should be checked before return to operation. The identification codes should be recorded so that future spare parts and technical support requests are accurate.

Integration and Applications

The EVO200280738 drive assembly can be integrated into many industrial machines where reliable torque transmission is required. Typical applications include material handling, processing equipment, mixers, and special machinery. The final application determines the required protection, mounting arrangement, and maintenance access. The drive assembly should be selected as part of the complete drive train, including motor, coupling, control, and driven machine.

System integration should consider starting conditions, load inertia, shock loads, and operating environment. If the machine is exposed to outdoor conditions or washdown, additional protection may be required. Control system design should include safe stop functions and fault handling. Operators should receive clear instructions for normal use and for responding to abnormal conditions. Good integration practice reduces downtime and supports predictable maintenance.

Selection and Summary

Selection should confirm the model code, configuration code, mechanical interface, speed range, torque requirement, and mounting position. The designer should verify that the assembly matches the motor and driven machine. Documentation should be reviewed for lubrication, installation tolerances, and service requirements. Any deviation from the standard configuration should be confirmed before installation.

The Bonfiglioli EVO200280738 Drive Assembly with code JD00001141 and configuration A202 UH30 92.3 provides a defined mechanical interface for industrial power transmission. Its correct use depends on careful planning, proper alignment, suitable protection, and planned maintenance. When these conditions are met, the assembly supports stable machine operation and long service life.

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