Failure Analysis in Semiconductors

Written by Dr. Bhargav Raval | Updated: February 10, 2026

Failure Analysis in Semiconductors

Written by Dr. Bhargav Raval |  Updated: February 10, 2026

FAILURE ANALYSIS IN SEMICONDUCTORS

Semiconductor Failure Analysis (FA) processes determine how or why a semiconductor device has failed. These procedures are frequently carried out in a sequence of processes referred to as failure analysis methodologies. 

Deviating from the device’s electrical, visual, or mechanical requirements is a failure. Failure analysis is essential for figuring out what went wrong and how to avoid it in the future.

Identifying the type of failure is the first step in a semiconductor failure study. Functional and parametric failures are two main categories that can be used to classify semiconductor faults. Parametric failure refers to the condition when a device’s function is outside the parameters for a quantifiable attribute. Functional failure refers to a device’s failure to perform as planned.

The goal of the testing phase is to identify the precise origin and causes of the failure. In order to accomplish that, multiple testing methods, some destructive and some non-destructive, will be used in semiconductor failure analysis on the device.

Following failure verification, the analyst applies several FA approaches to the sample step-by-step while documenting attributes and other findings. FA approaches that do not cause damage are used first. The outcomes of these numerous FA approaches must also be reliable and consistent. Before moving on to the subsequent phase, any discrepancies in the results must be fixed. For instance, a pin cannot indicate a broken wire during X-ray inspection and an appropriate curve trace during curve tracing. Therefore, this discrepancy must be resolved by confirming which of the two results is accurate.

Advantages of Failure Analysis in Semiconductors

  • Improve quality and yield when producing complex display technology.

Limitations of Failure Analysis in Semiconductors

  • The ability of semiconductor devices to handle power is inferior to that of traditional vacuum tubes. 

Industrial Application of Failure Analysis in Semiconductors

  • Workflows for semiconductor failure analysis make it possible to recognize and classify minute electrical flaws that affect yield, performance, and dependability.

ABOUT AUTHOR

Dr. Bhargav Raval is a Materials Scientist and Client Engagement Engineer with expertise in nanomaterials, polymers, and advanced material characterization. He holds a Ph.D. in Nanosciences from the Central University of Gujarat, where his research focused on graphene-based materials for flexible electronics. Professionally, he has led R&D in sensor technologies and coatings, including polymer-functionalized piezoelectric sensors for breath-based cancer diagnostics. In his current role, Dr. Raval works closely with clients to understand technical requirements, design testing strategies, and deliver tailored solutions in materials selection, failure analysis, and performance evaluation. He effectively bridges scientific depth with practical outcomes, ensuring client-focused project execution. With peer-reviewed publications in high-impact journals and a proven record of applying materials science to real-world challenges, Dr. Raval continues to drive innovation at the intersection of research, engineering, and client engagement.
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