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1-3 of 3
Rosalinda M. Ring
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Proceedings Papers
ISTFA2015, ISTFA 2015: Conference Proceedings from the 41st International Symposium for Testing and Failure Analysis, 496-502, November 1–5, 2015,
Abstract
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The advances on IC technology have made defect localization extremely challenging. “Soft” failures (resistive vias and contacts) are typically difficult to localize using commonly available failure analysis (FA) techniques such as emission microscopy (EMMI) and scanning optical microscopy (SOM), and often cannot be observed by two-dimensional inspections using layer by layer removal. The article describes the Resistive Contrast Imaging (RCI) defect localization technique (also known as Electron Beam Absorbed Current (EBAC), instrumentations, and case studies on test structures or process control monitors especially designed to detect “soft” open failures on advanced (28nm and below) technology devices. It also lists the key SEM parameters critical for effective FA using the RCI nano-probing system.
Journal Articles
Edward I. Cole, Jr., Paiboon Tangyunyong, Charles F. Hawkins, Michael R. Bruce, Victoria J. Bruce ...
Journal: EDFA Technical Articles
EDFA Technical Articles (2002) 4 (4): 11–16.
Published: 01 November 2002
Abstract
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Resistive interconnections, a type of soft failure, are extremely difficult to find using existing backside methods, and with flip-chip packages, alternative front side approaches are of little or no help. In an effort to address this challenge, a team of engineers developed a new method that uses the effects of resistive heating to directly locate defective vias, contacts, and conductors from either side of the die. In this article, they discuss the basic principles of their new method and demonstrate its use on two ICs in which a variety of resistive interconnection failures were found.
Proceedings Papers
Edward I. Cole, Jr., Paiboon Tangyunyong, Charles F. Hawkins, Michael R. Bruce, Victoria J. Bruce ...
ISTFA2001, ISTFA 2001: Conference Proceedings from the 27th International Symposium for Testing and Failure Analysis, 43-50, November 11–15, 2001,
Abstract
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Resistive Interconnection Localization (RIL) is a new scanning laser microscope analysis technique that directly and rapidly localizes defective IC vias, contacts, and conductors from the front side and backside. RIL uses a scanned laser to produce localized thermal gradients in IC interconnections during functional testing. A change in the pass/fail state with localized heating of the IC identifies the failing site. The technique reduces the time to locate a resistive via from months to minutes. The sources of defective vias, the physics of RIL signal generation, and examples of RIL analysis are presented.