Silvia Titotto

Prof. Dr. Silvia Titotto

orcid
Innovation

Research Focus & Metrics

Academic Career Length

10Years (2017-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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28 May 2020 in Advanced Functional Materials
Verified
Journal Article
Closed access
PDF file
Mathilde ChampeauMathilde Champeau
Mathilde Champeau
DHDaniel Alves Heinze
Daniel Alves Heinze
TVThiago Nunes Viana
Thiago Nunes Viana
ESEdcarlos Rodrigues de Souza
Edcarlos Rodrigues de Souza
ACAnne Cristine Chinellato
Anne Cristine Chinellato
Silvia TitottoSilvia Titotto
Silvia Titotto

17 March 2022 in Mechanics of Advanced Materials and Structures
Verified
Journal Article
Closed access
Chanachai THongchomChanachai THongchom
Chanachai THongchom
pouyan roodgar saffaripouyan roodgar saffari
pouyan roodgar saffari
Peyman roudgar saffariPeyman roudgar saffari
Peyman roudgar saffari
Nima RefahatiNima Refahati
Nima Refahati
SSSayan Sirimontree
Sayan Sirimontree
Silvia TitottoSilvia Titotto
Silvia Titotto
The idea of transferring vital drugs through nanotubes in the human body has attracted the attention of many researchers in the field of nanomedicine. Accordingly, the main objective of this article is to investigate the forced vibration response of two hybrid smart carbon nanotubes connected using springs and conveying a nanofluid, with each one including either a piezoelectric or electrorheological fluid layer. To this aim, a slip boundary condition along with a Knudsen number is employed to address the vibration behavior of smart hybrid sandwich nanotubes acted upon by a moving sinusoidal load, while equations are derived with the aid of the Timoshenko beam model and nonlocal strain gradient theory. The former theory is complemented with hardening and softening material effects which can greatly enhance the precision of the results. Furthermore, Hamilton’s principle is implemented to obtain the equations of motion. Regarding the time response of the structure, a combination of modal analysis and the Laplace transform is applied. The accuracy of the developed procedure is verified through a set of comparisons of static deflection (as a result of a point load) and vibration frequencies. In addition, the impact of a number of parameters ranging from nanoparticle velocity to material length scale is investigated.

1 March 2023 in Functional Composites and Structures
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Journal Article
Closed access
APAnna Cecília Do Nascimento Pereira
Anna Cecília Do Nascimento Pereira
Silvia TitottoSilvia Titotto
Silvia Titotto
Biomimetics enables the use of nature as a source of inspiration for the elaboration of high-performance materials. In this scenario, the development of bioinspired composites emerges as a promising proposal, capable of generating technological innovation in numerous areas of engineering, considering the exceptional mechanical performance of materials of this kind. That said, this review article characterizes the design principles and fundamental parameters for bioinspired composites design. In addition, the main challenges to be overcome in the development of bioinspired materials are discussed, with the presentation of some experimental studies that lead to the practical application of such principles. Future applications for this class of materials are also highlighted.

1 January 2021 in Brazilian Archives of Biology and Technology
Verified
Journal Article
Open access
GMGabriel Yuto Munakata
Gabriel Yuto Munakata
PZPlínio Rodrigues de Oliveira Zanini
Plínio Rodrigues de Oliveira Zanini
Silvia TitottoSilvia Titotto
Silvia Titotto

31 July 2020 in Research on Biomedical Engineering
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Journal Article
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GMGabriel Munakata
Gabriel Munakata
PZPlínio Zanini
Plínio Zanini
Silvia TitottoSilvia Titotto
Silvia Titotto

15 January 2021
Verified
Book Chapter
Closed access
Silvia TitottoSilvia Titotto
Silvia Titotto
This chapter opens up discussions upon the relevance of interaction of representations and data visualization modes for smart cities design, planning, and development that occur beyond paper and computer drawing. Although many practitioners usually relate smart cities and digital twins design exclusively to CAD/CAM/CAE and BIM methods, processes, and tools, a wider pool of techniques and forms of expression might be the key to a more accurate and comprehensive way of simulating the several kinds of alterations that happen in the planned built environment. The chapter deals with the study of concepts that relate to both physical and virtual prototyping, which underlines an interdisciplinary approach to design and the impact of integrating biologically inspired principles from different backgrounds to the field of smart cities design. In this regard, biomimetics and additive manufacturing may play key roles in smart city's modeling design and the frontier technology of 5D printing reveals real-time decision-making programmable 4D printing process as a potential future development.