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51

ELECTRONIC DEVICE FAILURE ANALYSIS | VOLUME 18 NO. 2

• Z. Qui, R.S. Wilson, Y. Liu, et al.:

“Translation

Microscopy (TRAM) for Super-Resolution Imaging,”

Sci. Rep.,

2016,

6,

p. 19993.

• S. Roy, K. Ushakova, Q. van den Berg, et al.:

“Radially

Polarized Light for Detection and Nanolocalization

of Dielectric Particles [and Defects] on a Planar

Substrate,”

Phys. Rev. Lett.,

2015,

114,

p. 103903. See

also

“Synopsis: Light Finds Tiny Defects,”

Physics,

March 12, 2015,

physics.aps.org/synopsis-for/10.1103/ PhysRevLett.114.103903.

• M. Rutkauskas, C. Farrell, C. Dorrer, et al.:

“High-

Resolution Subsurface Microscopy of CMOS

Integrated Circuits Using Radially Polarized Light,”

Opt. Lett.,

2015,

40,

p. 5502.

• S. Segawa, Y. Kozawa, and S. Sato:

“Resolution

EnhancementofConfocalMicroscopybySubtraction

Method with Vector Beams,”

Opt. Lett.,

2014,

39,

p.

3118.

• S. Segawa, Y. Kozawa, and S. Sato:

“Demonstration of

Subtraction Imaging in Confocal Microscopy with

Vector Beams,”

Opt. Lett.,

2014,

39,

p. 4529.

• C. Wu, S. Yao, andB. Corinne:

“Leakage Current Study

and Relevant Defect Localization in Integrated

Circuit Failure Analysis [Using Photon Emission and

OBIRCH],”

Microelectron. Reliab.,

2015,

55,

p. 463.

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GUEST EDITORIAL

(CONTINUED FROM PAGE 2)

or a purely functional fault inside a system-in-package?

The right tool has not yet been built. Acoustic and x-ray

tomography are still evolving to provide incredible and

accurate resolution, but it may not be enough when the

defect must first be localized to reduce the area to inves-

tigate with other tools.

We are facing analyses on complex, small systems that

have embeddedwireless, self-power, various sensors, and

actuators. There is not yet a combination of multiphysics

tools to locate where the defect is, because the system

is often built in a sequential manner: sensor, processing,

wireless transmission/actuator. Built-in self-test could

help a lot if it integrates the multiphysics—not only elec-

trical—aspects of these devices, but it won’t fully replace

FA tools and techniques. It will be even worse with the

expected development of the Internet of Things.

Last, but not least, nanoelectronics are everywhere.

They are a big success story with some side effects for FA.

Small- andmedium-sized companies are developing new

products with an incredible diversity in the technologies

used. Remote health monitors, mobile applications,

wearable electronics, organic electronics, and plenty

of other new fields are included. Unfortunately, each

market is too small and not necessarily well identified to

encourage tool manufacturers to develop adapted tools

for these markets.

It is the right time for the electronics industry to

understand that the FA supply chain is fragile and needs

common efforts todevelop the right tools and techniques.

It is the right time for tool manufacturers to address

these new needs and to adapt and customize their tools

or develop new ones.

It is the right time for experienced failure analysts to

actively participate in the FA tool paradigm shift. EDFAS

will play a key role in cross fertilizing the global efforts of

all interested FA engineers.

REFERENCE

1. C.E. McCants: “An IARPA Success Story—The Circuit Analysis Tools

Program,”

Electron. Dev. Fail. Anal.,

Aug. 2015,

17

(3), pp. 50-52.