CV Lattes
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Universidade de São Paulo (USP). Escola de Engenharia de Lorena (EEL) (Institutional affiliation from the last research proposal) Birthplace: Brazil
He holds a degree in Chemical Engineering from the former Faculty of Chemical Engineering of Lorena (FAENQUIL) (1989), now the School of Engineering of Lorena (EEL-USP), a Masters degree in Polymer Science and Technology from the Federal University of Rio de Janeiro (1992), and a PhD in Polymers and Composite Materials (Polymères et Matériaux Composites) from Université Claude Bernard Lyon I (1996). He completed two postdoctoral fellowships in Lyon, France. The first, in the area of polymerization process control, was carried out at LAGEP/CPE/CNRS (1997), and the second, in the synthesis of polymers with controlled molecular architecture, at LCPP/CPE/CNRS (20052006). He was a visiting researcher at LCPP/CPE/CNRS during 20082009 (Poste Rouge). He became an Associate Professor (Livre-Docente) at the School of Engineering of Lorena (EEL-USP) in the teaching area of Polymerization Mechanisms (2010). He is currently a Full Professor at the School of Engineering of Lorena/USP.He served as Chair of the International Cooperation Committee of EEL-USP (CRInt-EEL) from 2011 to 2016. He was Head of the Department of Chemical Engineering (DEQUI) at EEL-USP in 2017. He was Vice-Director of the School of Engineering of Lorena and a full member of the University Council of USP from 2017 to 2020. He coordinated the Graduate Program Committee in Chemical Engineering (CCP-PPGEQ) from 2017 to 2020. He also chaired the Graduate Committee of EEL-USP from August 2020 to March 2021. He served as Dean (Prefeito) of the USP Lorena Campus from 2021 to 2024.He has experience in the field of Chemical Engineering, with emphasis on polymers, working mainly on the following topics: synthesis of new polymeric materials with controlled molecular architecture via controlled/living radical polymerization; emulsion and miniemulsion polymerization processes; chemical modification of natural polymers; synthesis of nanocomposites; and encapsulation processes for controlled release of active agents. (Source: Lattes Curriculum)
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The main objective in this research project is to develop hydrogels with pullulan-based (co)polymers, combined with chitosan and reinforced with cellulose nanocrystals (CNCs), for application in regenerative medicine, via the new technology of 3D bioprinting. The project addresses the challenges of replicating the human tissue microenvironment, focusing on improving the rheological and me…
In the current scientific scenario, both the academic community and the industry have given great importance to the study and improvement of the techniques of incorporation of inorganic nanoparticles into polymer matrixes. Nanostructured materials stand out by their many technological properties and potentialities that offer diverse benefits for the most varied applications. Among the mos…
The main goal in this project is to improve the infrastructure of several research laboratories in the areas of biotechnology, environmental science, chemical and materials engineering, and also to upgrade the infrastructure of the physical network of the EEL unit and to give support for one part of the structure of one of the artesian wells and also for two electric generators, essentia…
(Only some records are available in English at this moment)
The search for biocompatible materials that can aid in the regeneration of organic tissues is of great interest in medicine, given the challenges in treating diseases. Biocompatible and biodegradable hydrogels have been studied in the preparation of scaffolds for the growth of different types of cells, using 3D bioprinting, due to their structural characteristics that mimic an extracellul…
Controlled drug delivery systems were created by improving pharmacokinetics and pharmacodynamics to overcome existing problems in conventional administration, such as drug side effects, and also to control the rate, time and site of release in the body. For the development of polymeric controlled release systems intended for in vivo application, it is necessary to use polymers that are ob…
Controlled drug delivery systems were created through the improvement of pharmacodynamicsand pharmacokinetics to overcome existing problems in the conventional administration, suchas drug's side effects, and to give control of the rate, time, and place of drug release in theorganism. For the development of polymeric-controlled release systems for in vivo application, it is necessary to us…
(Only some records are available in English at this moment)
The incorporation of inorganic particles into polymeric materials is of great industrial and academic interest, as it provides many enhancements to the properties of polymer matrices, besides contributing to significant cost reductions. Recently, anisotropic particles have been the focus of many researches as an attractive charge for nanocomposites, since the high aspect ratio of these pa…