A Fault location model Oriented to C4ISR System

Author(s):  
Zhenxing Yao ◽  
Xi Zhong ◽  
Huailong Wang
2021 ◽  
Author(s):  
Shuo Cui ◽  
Jiangbo Yin ◽  
Jun Wang ◽  
Peixin Xu

ICLEM 2010 ◽  
2010 ◽  
Author(s):  
Yufeng Sun ◽  
Quanguo Zhang ◽  
Guangyin Xu
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2012 ◽  
Vol 132 (10) ◽  
pp. 872-878
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Junya Matsuki ◽  
Hisao Taoka ◽  
Shoji Kawasaki ◽  
Yuki Nakajima ◽  
Masakazu Horime ◽  
...  
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2019 ◽  
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pp. 33-39
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Yury Ya. LYAMETS ◽  
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Mikhail V. MARTYNOV ◽  
Alexander N. MASLOV ◽  
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2017 ◽  
Vol 5 (3) ◽  
pp. 17
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SANAD A. AHMED ◽  
ATTIA MAHMOUD A. ◽  
HAMED NABIL M. ◽  
ABDELAZIZ ALMOATAZ Y. ◽  
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2018 ◽  
Vol 9 (12) ◽  
pp. 1847-1850
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LathaV LathaV ◽  
P Rajalakshmi
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Author(s):  
Chris Eddleman ◽  
Nagesh Tamarapalli ◽  
Wu-Tung Cheng

Abstract Yield analysis of sub-micron devices is an ever-increasing challenge. The difficulty is compounded by the lack of in-line inspection data as many companies adopt foundry or fab-less models for acquiring wafers. In this scenario, failure analysis is increasingly critical to help drive yields. Failure analysis is a process of fault isolation, or a method of isolating failures as precisely as possible followed by identification of a physical defect. As the number of transistors and metal layers increase, traditional fault isolation techniques are less successful at isolating a cause of failures. Costs are increasing due to the amount of time needed to locate the physical defect. One solution to the yield analysis problem is scan diagnosis based fault isolation. Previous scan diagnosis based techniques were limited with little information about the type of fault and confidence of diagnosis. With new scan diagnosis algorithms it is now possible to not only isolate, but to identify the type of fault as well as assigning a confidence ranking prior to any destructive analysis. This paper presents multiple case studies illustrating the application of scan diagnosis as an effective means to achieve yield enhancement. The advanced scan diagnostic tool used in this study provides information about the fault type as well as fault location. This information focuses failure analysis efforts toward a suspected defect, decreasing the cycle time required to determine root cause, as well as increasing the over all success rate.


Author(s):  
Dima A. Smolyansky

Abstract The visual nature of Time Domain Reflectometry (TDR) makes it a very natural technology that can assist with fault location in BGA packages, which typically have complex interweaving layouts that make standard failure analysis techniques, such as acoustic imaging and X-ray, less effective and more difficult to utilize. This article discusses the use of TDR for package failure analysis work. It analyzes in detail the TDR impedance deconvolution algorithm as applicable to electronic packaging fault location work, focusing on the opportunities that impedance deconvolution and the resulting true impedance profile opens up for such work. The article examines the TDR measurement accuracy and the comparative package failure analysis, and presents three main considerations for package failure analysis. It also touches upon the goal and the task of the failure analysts and TDR's specific signatures for the open and short connections.


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