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, Concernant les nanoparticules, d'or, les résultats obtenus sont prometteurs en termes de détection par effet SERS. Néanmoins, je pense qu'il est possible d'améliorer à la fois la qualité et la reproductibilité des substrats en déposant la couche d'or par pulvérisation magnétron plutôt que par évaporation thermique. En effet, l'adhérence de l'or sur le verre est faible avec cette dernière technique et la couche à tendance à s'enlever lors du poling thermique. Le co-dopage argent-or est également possible en utilisant successivement l'échange ionique à l'argent puis le poling thermique pour former les deux types de nanoparticules. Ce co-dopage peut permettre d'étendre la sensibilité des substrats en termes de molécules à détecter

. De-la-même-façon, En effet, les nanoparticules de cobalt semblent s'oxyder au détriment de celles d'argent. Il a été démontré, dans la littérature, que des nanoparticules d'argent non oxydées, c'est-à-dire, purement métalliques, permettent une meilleure détection SERS. Les lames de verre codopées par des nanoparticules d'argent et de cobalt présentent également un intérêt potentiel en tant que matériau magnéto-optique, dans lequel la polarisation d'une onde lumineuse se propageant est modifiée sous champ magnétique. Mes résultats ont notamment montré que les nanoparticules de cobalt précipitent sous la forme cristalline Co3O4, qui présente des propriétés magnétiques intéressantes. Le co-dopage avec l'argent pourrait permettre d'exploiter les propriétés optiques des nanoparticules d'argent via leur résonance plasmon. Bien évidemment, il faudra auparavant étudier les phénomènes physico-chimiques qui se produisent