Automotive Manufacturing Industry Solutions

Automotive Manufacturing Industry Solutions

Industry Pain Points

In the automotive manufacturing process, a wide range of equipment and processes are involved, such as stamping machines, elevators, air compressors, fans, overhead cranes, and more. The proper operation of these devices is crucial for ensuring both vehicle quality and production efficiency. Traditionally, equipment maintenance has relied primarily on experience-based periodic servicing and manual inspections—methods that fall short of enabling real-time monitoring of equipment conditions or implementing advanced, proactive management strategies like early warning systems. This limitation is particularly evident in the following areas:

Frequent equipment failures lead to production disruptions: A sudden breakdown of critical machinery during the automotive manufacturing process can cause an entire production line to shut down, resulting in daily losses amounting to millions.

1. Maintenance costs remain stubbornly high

Traditional periodic maintenance methods require significant investments of manpower and resources, yet they often result in either over-maintenance or insufficient maintenance, leading to low maintenance efficiency.

2. The issue of data silos is severe.

Production equipment comes from different suppliers, and the data interfaces are not standardized, making it difficult to achieve comprehensive collection and integrated analysis of equipment status data.

3. Lack of an effective early warning system

Most existing monitoring systems rely on post-event alerts, failing to predict potential equipment failure risks in advance and thus unable to enable true predictive maintenance.

4. Shortage of Professional Talent

There is a shortage of versatile talents who possess both expertise in equipment and proficiency in data analysis and fault diagnosis, making it difficult for companies to independently carry out effective equipment condition monitoring and failure diagnostics.

5. System integration is challenging

The factory currently has IT The system struggles to seamlessly integrate with the newly installed equipment monitoring system, hindering data flow and business collaboration.

Solution Deployment

Solution Advantages

The equipment online monitoring and predictive maintenance system is designed to implement all-around, intelligent monitoring of the operational components in key production equipment used for automobile manufacturing. Specifically, this includes installing high-precision temperature-and-vibration integrated sensors along with corresponding smart data acquisition terminals on core transmission parts such as equipment drive motors, gearboxes, bearing housings, and spindles. Additionally, professional current harmonic sensors and data collectors will be installed at the equipment’s power distribution control cabinets. By deploying a specialized condition monitoring and analysis software platform, the system aims to achieve comprehensive oversight of critical production equipment. 7*24 Hourly uninterrupted intelligent monitoring, coupled with precise equipment failure prediction powered by data analysis results.

The equipment online monitoring and predictive maintenance system features several advanced capabilities: First, the system can collect real-time operational data from critical components such as drive motors, bearing housings, gearboxes, and control cabinets. Key monitoring indicators include vibration spectra, temperature changes, current waveforms, and other essential parameters. By comprehensively analyzing this multi-dimensional data and assessing underlying trends, the system accurately assesses the equipment’s current operating status, promptly identifies potential anomalies, and subsequently provides tailored preventive maintenance recommendations—such as timely lubricant replenishment, tightening of loose bolts, or scheduling preventive inspections. Additionally, the system is equipped with a robust remote monitoring module, enabling maintenance personnel to monitor equipment conditions effectively from anywhere. PC View device status and receive alert notifications anytime, anywhere via a desktop or mobile device—enabling remote device management.

In terms of fault diagnosis, the system integrates cutting-edge artificial intelligence algorithms and advanced deep learning techniques. By building a database of equipment fault characteristics and training machine learning models on vast amounts of historical fault cases, the system can automatically identify various typical fault patterns—including, but not limited to, rotor imbalance, shaft misalignment, bearing wear, and abnormal temperature—and intelligently analyze the root causes of these failures. The system then generates detailed diagnostic reports that include information such as fault type, severity level, and recommended corrective actions, providing professional guidance for operations and maintenance decision-making. This intelligent diagnostic approach not only significantly reduces the time required for fault identification 80% Above, while simultaneously boosting the diagnostic accuracy to 95% That's all.

The equipment online monitoring and predictive maintenance system is an intelligent solution integrating data acquisition, condition monitoring, fault diagnosis, and predictive maintenance into one comprehensive system. By implementing 7×24 Real-time monitoring and intelligent early warning within hours can help users prepare in advance. 3-6 Discovering potential equipment failures within a month helps reduce unplanned downtime. 60% Above, the overall equipment effectiveness has improved. 30% Above all, the system not only effectively extends the lifespan of equipment but also creates significant economic benefits and enhances safety for users.

Case Sharing

Huayuanda Project No. 2 # Stamping Machine (Old 1000T)
Spindle Failure Case

1. Device Information

Equipment Type: Stamping Machine

Motor rated speed: 1500 r/min

This case is associated with the measurement point: motor drive end

 

2. Equipment Model Diagram and Measurement Point Information

 

 

3. Platform Alarm and Analysis Process

 

When the device was powered on and running in March, the vibration acceleration value at the motor's no-load end gradually increased—from 15 mm/s to 25 mm/s—triggering the platform’s trend threshold alarm.

 

Platform Trend Threshold Alert Message

 

The spectrum reveals the motor rotational frequency and its harmonics, with the second harmonic showing a relatively high amplitude. This initially suggests misalignment between the motor and the spindle. Given that the motor and spindle are driven via a belt, it is further determined that the spindle of the stamping machine is experiencing an abnormality.

 

Trend Chart of Vibration Velocity Characteristics at the Motor Drive End


 

Vibration Velocity Spectrum Diagram of the Motor Drive End

 

4. Diagnostic Conclusion and Recommendations

Diagnostic conclusion: The machine tool spindle exhibits abnormal conditions, and the equipment is operating in a warning state.

Maintenance recommendation: Currently, the speed measurement exceeds the standard; please stop the machine immediately to inspect the spindle for any potential issues.

 

5. On-site Inspection and Maintenance Results, along with Customer Feedback

On the afternoon of June 4, onsite personnel shut down the equipment and discovered that the machine tool spindle had broken.

 

6. Verification After Inspection and Maintenance

From June 5 to June 25, the machine tool spindle was replaced. On the morning of June 30, when the equipment was restarted, the vibration velocity values at both the motor-driven and non-driven ends showed a noticeable decrease—now below 20 mm/s—and the current operating trend remains stable.

 

 

Make industry smarter and equipment healthier

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