High sensitive synchrone detection based dynamic Sénarmont method for measurements of electro-optical (EO) Pockels and Kerr coefficients in hybrid nanocomposites films

This study introduces an innovative approach by employing a highly sensitive synchronous detection-based dynamic Sénarmont method for the precise measurement of electro-optical (EO) Pockels and Kerr coefficients within hybrid nanocomposite films. The experimental setup integrates LabVIEW instrumentation software, ensuring accurate data acquisition. The EO-active film compositions encompass diverse polymer (PMMA) and organic dye combinations, including PMMA/organic dyes (DR1 and CPO), as well as PMMA combined with DR1-SiC, DR1-TiO2, and CPO-TiO2. Through meticulous experimentation and calibration of the Sénarmont setup, this research demonstrates exceptional sensitivity in evaluating EO parameters based on film composition. Notably, the study examines the impact of poling conditions, geometric configurations, and the influence of TiO2 nanoparticle integration on electro-optical behavior. The findings reveal distinctive electro-optical responses, highlighting the significant potential for tailored designs and practical applications in optimizing polymer nanocomposite electro-optical properties. Overall, this work offers valuable insights into refining measurement techniques and leveraging nanomaterials for enhanced electro-optical functionalities.

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Publication Details

Journal
Review of Scientific Instruments
Published
2024-10-01
DOI
https://doi.org/10.1063/5.0197811
Primary Topic
Analytical Chemistry and Sensors
Type
article
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article

High sensitive synchrone detection based dynamic Sénarmont method for measurements of electro-optical (EO) Pockels and Kerr coefficients in hybrid nanocomposites films

Pierre Taugeron, Kaoutar EDDOHA, A. Bulou, Saïd Ouaskit et al.
Review of Scientific Instruments
Analytical Chemistry and Sensors
article

High sensitive synchrone detection based dynamic Sénarmont method for measurements of electro-optical (EO) Pockels and Kerr coefficients in hybrid nanocomposites films

Pierre Taugeron, Kaoutar EDDOHA, A. Bulou, Saïd Ouaskit, A. Kassiba, S. Ezzehouany, A. Eddahbi, Asmaa Drighil
article en

Abstract

This study introduces an innovative approach by employing a highly sensitive synchronous detection-based dynamic Sénarmont method for the precise measurement of electro-optical (EO) Pockels and Kerr coefficients within hybrid nanocomposite films. The experimental setup integrates LabVIEW instrumentation software, ensuring accurate data acquisition. The EO-active film compositions encompass diverse polymer (PMMA) and organic dye combinations, including PMMA/organic dyes (DR1 and CPO), as well as PMMA combined with DR1-SiC, DR1-TiO2, and CPO-TiO2. Through meticulous experimentation and calibration of the Sénarmont setup, this research demonstrates exceptional sensitivity in evaluating EO parameters based on film composition. Notably, the study examines the impact of poling conditions, geometric configurations, and the influence of TiO2 nanoparticle integration on electro-optical behavior. The findings reveal distinctive electro-optical responses, highlighting the significant potential for tailored designs and practical applications in optimizing polymer nanocomposite electro-optical properties. Overall, this work offers valuable insights into refining measurement techniques and leveraging nanomaterials for enhanced electro-optical functionalities.

Review of Scientific InstrumentsVol. 95(10)
Le Mans Université (FR), Institut des Molécules et Matériaux du Mans (FR), University of Hassan II Casablanca (MA)
Openalex Percentile: Top 81%
Analytical Chemistry and Sensors
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