Number of hours
- Lectures 8
ECTS
ECTS 0,75
Goal(s)
The aim of this module is to give an overview of the existing techniques related to the electric field analysis within harsh environments. More precisely, this course will explain both the fundamentals of optical modulations in non-linear crystals and how to exploit this phenomena to develop suitable sensors. A focus will be dedicated to the influence of the ambient media on the sensor behavior. Examples of measurements in biological media and in ionized media with specific electro-optic sensors will be given.
The content of this lecture is based on state of the art research achievements. Nevertheless, the explanations will be adapted for the students of master WICS
The content of this lecture is based on state of the art research achievements. Nevertheless, the explanations will be adapted for the students of master WICS
Responsible(s)
Gwenael Gaborit (gwenael.gaborit@univ-savoie.fr)
Content(s)
The aim of this module is to give an overview of the existing techniques related to the electric field analysis within harsh environments. More precisely, this course will explain both the fundamentals of optical modulations in non-linear crystals and how to exploit this phenomena to develop suitable sensors. A focus will be dedicated to the influence of the ambient media on the sensor behavior. Examples of measurements in biological media and in ionized media with specific electro-optic sensors will be given.
The content of this lecture is based on state of the art research achievements. Nevertheless, the explanations will be adapted for the students of master WICS.
- Introduction and context:
- Why measuring the electric (E) field ?
- requirements for E-field measurement
- definition of relevant characteristics for E-field sensors
- benchmarking of exiting sensors
- Optical sensor for the E-field vectorial analysis
- Active sensors
- principles
- perfomances
- example of field assessment
- passive sensors
- principles
- perfomances
- example of field assessment in air
- example of field assessment in biological media
- example of intense field assessment associated to partial or total discharge
- example of intense field assessment in the vicinity of plasmas for biomedical applications
- Conclusion
Additional exercises will be proposed for each section/ subsection of the lecture.
The content of this lecture is based on state of the art research achievements. Nevertheless, the explanations will be adapted for the students of master WICS.
- Introduction and context:
- Why measuring the electric (E) field ?
- requirements for E-field measurement
- definition of relevant characteristics for E-field sensors
- benchmarking of exiting sensors
- Optical sensor for the E-field vectorial analysis
- Active sensors
- principles
- perfomances
- example of field assessment
- passive sensors
- principles
- perfomances
- example of field assessment in air
- example of field assessment in biological media
- example of intense field assessment associated to partial or total discharge
- example of intense field assessment in the vicinity of plasmas for biomedical applications
- Conclusion
Additional exercises will be proposed for each section/ subsection of the lecture.
Test
The exam is given in english only
1 written exam, 1 hour [to be confirm or modified]
Final mark= 1 (exam)
Additional Information
Lecture is given in English only.
Bibliography
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W. D. Parther, C. E. Baum, R. J. Torres, F. Sabath, and D. Nitsch. Survey of worldwide high-power wideband capabilities. IEEE Trans. Electromagn. Compat., 46 :335–344, 2004.
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F. Pockels. Gesell., wiss. Gottingen, 39, 1, 1893.
F. Pockels. Lehrbuch der kristalloptik. Leipzig : Teubner, 1906.
S.Wakana, T. Ohara, M. Abe, E. Yamazaki, M. Kishi, and M. Tsuchiya. Fiber-edge electrooptic/magnetooptique probe for spectral-domain analysisof electric field. IEEE Trans.Microwave Theory Tech., 48 :2611, 2000.
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L. Duvillaret, S. Rialland, and J-L. Coutaz. Electro-optic sensors for electric field measurements. ii. choice of the crystals and complete optimization of their orientation. J. Opt. Soc. Am. B, 19 :2704–2715, 2002.
L. Duvillaret, S. Rialland, and J-L. Coutaz. Electro-optic sensors for electric field measurements. i.theoretical comparison among different modulation techniques. J. Opt. Soc. Am. B, 19 :2692–2703, 2002.
K. Yang, G. David, J.G. Yook, I. Papapolymerou, L.P. Katehi, and J.F. Whitaker. Electrooptic mapping and finite-element modeling of the near-field pattern of a microstrip patch antenna. Microwave Th. and Tech., 48, 2 :288–294, 2000.
K. Yang, L.P. Katehi, and J.F. Whitaker. Electro-optic field mapping system utilizingexternal gallium arsenide probes. App. Phys. Lett., 77,4 :486–488, 2000.
G. Gaborit, J-L. Coutaz, and L. Duvillaret. Vectorial electric field measurement using isotropic electro-optic crystals. App. Phys. Let., 90, 2007.
J. P. Pérez. Optique - Fondements et applications. éditions Dunod, 2004.
G. Gaborit. Caractérisation de champs électriques hyperfréquences par capteurs électro-optiques vectoriels fibrés. PhD thesis, Universite de Savoie, 2005.
P. Jarrige R.P. O’Connor G. Gaborit L. Duvillaret D. Arnaud-Cormos N. Ticaud, S. Kohler and P. Leveque. Specific absorption rate assessment using simultaneous electric field and temperature measurements. IEEE Ant. Wire. Prop. Lett., 11 :252–255, 2012.
G. Gaborit, J.Dahdah, F. Lecoche, P. Jarrige, Y. Gaeremynck, E. Duraz, and Lionel Duvillaret. A nonperturbative electrooptic sensor for in situ electric discharge characterization. IEEE Trans. Plasm. Sci., 41 :2851–2857, 2013.
French State controlled Master's degree
