PerkinElmer and Covalent collaborate to strengthen Failure Analysis and Materials Characterization in mechanical industries and batteries

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⚙️ Technical overview of the strategic collaboration between PerkinElmer and Covalent in failure analysis

PerkinElmer and Covalent announced a strategic collaboration aimed at developing advanced technologies in the field of failure analysis and materials characterization, especially in the semiconductor, electronics, and energy storage industries. This collaboration relies on the use of advanced analytical tools such as Inductively Coupled Plasma Mass Spectrometry (ICP-MS/MS) and Liquid Chromatography-Tandem Mass Spectrometry (LC-MS/MS) to ensure more precise monitoring and identification of the causes of material failure with the highest sensitivity.

This collaboration contributes to strengthening quality control operations and the precise diagnosis of performance problems in precision industries that require in-depth knowledge of material degradation mechanisms and trace chemical contamination.

Why is this industrially important?

🔧 The importance of failure analysis and materials characterization in precision industries

In the field of mechanical engineering, especially in the semiconductor and energy industries, failure analysis processes play a central role in improving reliability and increasing component lifespan. Manufacturers face challenges related to:

  • Unexpected degradation of mechanical and chemical components.
  • The spread of trace chemical contamination that may not be easily detected.
  • Structural collapse of complex electronic components.

For this reason, techniques such as ICP-MS/MS and LC-MS/MS provide advanced analytical capabilities that reveal even the finest chemical and organic details associated with these failures, helping to understand the root of the problem with high precision.

The sensitivity of these tools is essential for:

  • Tracking metallic impurities down to the parts-per-billion level.
  • Monitoring degradation of chemical reagents and electronic plates.
  • Diagnosing failure of solder joints and mobile shorts in circuit boards.
An important mechanical point

🔥 The role of ICP-MS/MS and LC-MS/MS technologies in failure analysis and battery manufacturing

The ICP-MS/MS technique represents an advanced chemical analysis tool that enhances researchers’ ability to detect the presence of trace metallic impurities before they are installed on silicon wafers or semiconductor compounds. This technique also enables:

  • Studying the corrosion of solder materials and ruling out the causes of their degradation.
  • Detecting short-circuit phenomena or undesirable chemical reactions that lead to electronic device failure.

On the other hand, LC-MS/MS plays a central role in evaluating battery performance by analyzing the degradation of electrical reagents and organic materials used in the battery. In addition, its effectiveness lies in characterizing protective coatings and insulating materials such as epoxy mold compounds used in electronic component assemblies.

These analyses benefit:

  • Providing accurate data to develop batteries with longer operating life.
  • Improving the quality of electronic components by controlling chemical degradation processes.
  • Enhancing safety and performance in precision industrial applications.
Technical takeaway

🏭 The strategic collaboration and its impact on the semiconductor and energy industries

This collaboration between PerkinElmer and Covalent enriches the mechanical engineering and materials sector with deeper and more customized analyses. The partnership combines deep applied expertise with innovations in analytical equipment. As a result, it is expected to lead to:

  • Reducing product failure rates and rework cases on production lines.
  • Increasing the reliability and efficiency of power batteries used in electric vehicles and industrial storage.
  • Improving quality control processes for raw materials and spare parts used in manufacturing.

This step represents a modern model of how advanced analytical technologies can be integrated into mechanical engineering and smart manufacturing processes to achieve tangible results at the industrial level.

🚗 How do these technologies serve the automotive and electronics industries?

With the increasing reliance on electronic control systems and batteries in modern cars, precise analysis of impurities and material degradation has a direct impact on performance and safety. Here, the following help:

  • ICP-MS/MS techniques identify metallic impurities that may affect power conductors.
  • LC-MS/MS techniques track the chemical degradation of electrochemical reagents, which affects battery life and efficiency.

This in turn contributes to improving vehicle reliability, reducing sudden failures, and increasing energy consumption efficiency.

What changed here?

🔍 The role of applied expertise in advancing analytical technology

The value of the collaboration is not limited to advanced equipment, but is also embodied in the applied expertise provided by Covalent as a specialized partner in the analytical challenges of the semiconductor and energy sectors. Practical experience shows that combining:

  • The modern high-tech devices offered by PerkinElmer,
  • And in-depth experimental knowledge to interpret results and apply them in practice,

makes it possible to improve industrial processes and reduce manufacturing costs arising from failures that are not detected early.

This integration is an example of a comprehensive approach that includes evaluating raw materials, understanding failure mechanisms, and reaching practical recommendations based on reliable scientific data.

💡 Conclusion

By joining the efforts of PerkinElmer and Covalent, new horizons open for developing systems of mechanical failure and chemical failure in semiconductor, electronics, and battery industries. This step enhances engineers’ ability to assess and improve performance through precise and sensitive analytical tools, supported by deep applied expertise.

This collaboration is an advanced example of what can be achieved in terms of qualitative improvements in materials quality control, failure monitoring, and system component analysis, which in turn reflects a more reliable and effective future for the precision components industry.


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