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. Comparaison-de-la-fluorescence......., en rouge) et de la GSH (en bleu) sous excitation laser continue En haut : image d'une culture cellulaire marquée par des particules GSH (a) en début d'excitation, (b) après 10 min d'excitation laser intense. En bas : évolution de la fluorescence et de la GSH en fonction du temps, p.20

B. Flexibilité-en-longueur-d-'onde-des-marqueurs, C. , and D. , En haut : spectres d'excitation laser à différentes longueurs d'onde (A) 720 nm nm et (D) 970 nm et spectres d'émission GSH correspondants En bas : images de cellules HTB-182 avec agent de contraste fluorescent (en rouge) exposés à des nanocristaux GSH (en bleu) La ligne du bas correspond aux mêmes images avec uniquement le signal de GSH

.. Détection-de-marqueurs-gsh-en-profondeur, détection de marqueurs (ou SHRIMPS, acronyme anglais pour Second Harmonic Radiation IMaging ProbeS) de 300 nm sous une épaisseur de 120 µm d'un tissu de queue de souris

.. Fonctionnalisation-et-marquage-spécifique, 25 1.14 (a) Principe de la silanisation et (b) schéma décrivant le dépôt d'APTES en fonction du temps, p.26

G. Marquage and . De-thrombocytes......, (a) échantillon de sang en lumière blanche, (b) en lumière blanche et détection GSH et (c) GSH uniquement, p.32

G. Marquage and A. De-cellules-végétales, (a) et (b) Marqueurs GSH présents dans les germes. (c) Marqueurs dans une pousse, p.33

G. Marquage and . Vivo, a) système expérimental (la souris est endormie) et (b) imagerie GSH dans une queue de souris dans les deux plans (XY) et (XZ, p.33

H. Intensités and I. , en rouge) et I Z (en bleu) en fonction de la polarisation incidente ? pour une solution de pNA, p.43

H. Intensité and L. En-fonction-de, concentration (a) de la suspension de KNbO 3 et (b) de la solution de pNA, p.69

.. De-zno, Exemple d'instabilité du signal HRS au cours d'une mesure en polarisation d'une suspension, p.73

3. Fe and 1. , En encart) Diagramme DRX (Co, K?) des nanopoudres obtenues par centrifugation des échantillons A, B, C et D. F représente le diagramme de référence (ICSD 154674) de l'iodate de fer, Evolution du signal HRS en fonction du temps pour une microémulsion à W=6, [AOT]=0,2 M, [IO ? 3 ]=0,3 M et, p.97

U. Absorbance, une suspension de BFO. (b) Comportement exponentiel de l'intensité HRS en fonction de la concentration, p.112

<. Comparaison-des and >. , Les tailles en intensité obtenues par DLS sont respectivement de 218 nm, 191 nm, 445 nm et 420 nm pour les suspensions de KNbO 3 , LiNbO 3 A, LiNbO 3 B et KTP. Les distributions considérées sont de type log-normale, p.84