3D Knife-edge Characterization of Two-Photon Absorption Volume in Silicon for Integrated Circuit Testing

Shao, Kai; Pouget, Vincent; Faraud, Emeric; Larue, Camille; McMorrow, D.; Lewis, Dean

doi:10.1364/nlo.2011.nmd5

Cited by 7 publications

(3 citation statements)

References 4 publications

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“…A recent study about TPA induced SET on a silicon photodiode has given an effective length of the TPA probe of 17 and 24 m for pulse energies of 1 and 3 nJ [15]. The laser parameters used were similar to the ones used in this study.…”

Section: ) Tpa Probe Effective Lengthmentioning

confidence: 99%

Investigation on the Single Event Burnout Sensitive Volume Using Two-Photon Absorption Laser Testing

Darracq¹,

Mbaye²,

Azzopardi³

et al. 2012

IEEE Trans. Nucl. Sci.

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Section: ) Tpa Probe Effective Lengthmentioning

confidence: 99%

Investigation on the Single Event Burnout Sensitive Volume Using Two-Photon Absorption Laser Testing

Darracq¹,

Mbaye²,

Azzopardi³

et al. 2012

IEEE Trans. Nucl. Sci.

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“…As the experimental applications of 2PA SEE have continued to evolve, there has been an increasing need for a quantitative understanding of the carrier generation process. However, there are significant complexities associated with accurately modeling this physical process, including the extraordinary non-paraxial focusing conditions encountered during beam propagation, a multiplicity of NLO phenomena that participate in the generation of carriers, and complicated changes in beam shape that can occur during propagation [5,6].…”

Section: Introductionmentioning

confidence: 99%

Numerical approaches for predicting two-photon absorption induced single-event effects in semiconductors

et al. 2016

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Two numerical approaches for determining the charge generated in semiconductors via two-photon absorption (2PA) under conditions relevant for laser-based single-event effects (SEE) experiments are presented. The first approach uses a simple analytical expression incorporating a small number of experimental/material parameters while the second approach employs a comprehensive beam propagation method that accounts for all the complex nonlinear optical (NLO) interactions present. The impact of the excitation conditions, device geometry, and specific NLO interactions on the resulting collected charge in silicon devices is also discussed. These approaches can provide value to the radiation-effects community by predicting the impacts that varying experimental parameters will have on 2PA SEE measurements.

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“…In the area of Nonlinear Absorption and Dispersion, two-photon absorption is characterized by Cirloganu et al [26] for direct bandgap materials and by Pouget et al [27] in silicon. Wahlstrand et al [28] describe theoretically and experimentally how a static field can be used to control the generated photocarriers in GaAs.…”

mentioning

confidence: 99%

Focus issue introduction: nonlinear optics

Boulanger¹,

Cundiff²,

Gauthier³

et al. 2011

Opt. Mater. Express

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Abstract:It is now fifty years since the original observation of second harmonic generation ushered in the field of nonlinear optics, close on the heels of the invention of the laser. This feature issue celebrates this anniversary with papers that span the range from new nonlinear optical materials, through the increasingly novel methods that have been developed for phase matching, to emerging areas such as nonlinear metamaterials and plasmonic enhancement of optical properties. It is clear that the next fifty years of nonlinear optics will witness a proliferation of new applications with increasing technological impact.

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3D Knife-edge Characterization of Two-Photon Absorption Volume in Silicon for Integrated Circuit Testing

Cited by 7 publications

References 4 publications

Investigation on the Single Event Burnout Sensitive Volume Using Two-Photon Absorption Laser Testing

Investigation on the Single Event Burnout Sensitive Volume Using Two-Photon Absorption Laser Testing

Numerical approaches for predicting two-photon absorption induced single-event effects in semiconductors

Focus issue introduction: nonlinear optics

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