Nanotechnology and supramolecular chemistry in controlled release and molecular recognition proceses for biomedical applications

  1. De la Torre Paredes, Cristina
unter der Leitung von:
  1. Félix Sancenón Galarza Doktorvater/Doktormutter
  2. Ramón Martínez Máñez Doktorvater/Doktormutter

Universität der Verteidigung: Universitat Politècnica de València

Fecha de defensa: 01 von Dezember von 2017

Gericht:
  1. Belén Albela Präsident/in
  2. Miguel Manzano García Sekretär
  3. José Luis Gómez Ribelles Vocal

Art: Dissertation

Zusammenfassung

This PhD thesis entitled "Nanotechnology and supramolecular chemistry in controlled release and molecular recognition processes for biomedical applications", is focused on two important subjects: molecular recognition and controlled delivery processes. This PhD thesis is structured in four chapters. The first chapter introduces the concept of organic-inorganic hybrid materials containing switchable "gate-like" ensembles and their biomedical applications as nanomaterials for targeting and control drug delivery. Furthermore, is introduced a short review about chromo-fluorogenic chemosensors based on basic principles of supramolecular chemistry, particulary in molecular recognition processes. In particular, in chapter 2 is focus on the development of enzymatic-driven nanodevices. These hybrid materials are composed of two main units: an inorganic silica based mesoporous scaffold, able to store organic molecules and an organic compound anchored on the external surface of the inorganic mesoporous support than acts as molecular gate. All the systems proposed use peptidic gates that respond to temperature or enzimatic stimulis. The second part of this PhD thesis is focused on the design and development of a new chemical compound capable of detecting carbon monoxide in vivo. In summary, for all the results above mentioned we can say that this PhD thesis constitutes an original scientific contribution to the development of supramolecular chemistry. Its results derived from the studies presented leaves open routes to continue the study and development of new hybrid materials and more efficient chemical sensors with biomedical and therapeutic applications.