Ioan Botiz

Dr. Ioan Botiz

Interdisciplinary Research Institute in Bio-Nano-Sciences of the Babes-Bolyai University, Cluj-Napoca, Romania
orcid

Research Focus & Metrics

Academic Career Length

17Years (2010-Present)

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

Representative Publications

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23 December 2019 in Journal of Materials Chemistry C
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Journal Article
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RTRaluca Tarcan
Raluca Tarcan
OTOtto Todor-Boer
Otto Todor-Boer
IPIoan Petrovai
Ioan Petrovai
CLCosmin Leordean
Cosmin Leordean
SASimion Astilean
Simion Astilean
Ioan BotizIoan Botiz
Ioan Botiz
A summary of the most important technological applications employing reduced graphene oxide.

28 September 2012 in Angewandte Chemie International Edition
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Journal Article
Closed access
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KRKhosrow Rahimi
Khosrow Rahimi
Ioan BotizIoan Botiz
Ioan Botiz
NSNatalie Stingelin
Natalie Stingelin
NKNavaphun Kayunkid
Navaphun Kayunkid
MSMichael Sommer
Michael Sommer
Günter ReiterGünter Reiter
Günter Reiter

10 January 2011 in Macromolecules
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Journal Article
Closed access
RVRafael Verduzco
Rafael Verduzco
Ioan BotizIoan Botiz
Ioan Botiz
DPDeanna L. Pickel
Deanna L. Pickel
SKS. Michael Kilbey
S. Michael Kilbey
KHKunlun Hong
Kunlun Hong
SDSeth B. Darling
Seth B. Darling

15 April 2011 in The Journal of Physical Chemistry C
Verified
Journal Article
Closed access
Ioan BotizIoan Botiz
Ioan Botiz
RSRichard D. Schaller
Richard D. Schaller
RVRafael Verduzco
Rafael Verduzco
Seth DarlingSeth Darling
Seth Darling

Verified
Journal Article
Open access
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RTRaluca Tudureanu
Raluca Tudureanu
Madalina Handrea-DraganMadalina Handrea-Dragan
Madalina Handrea-Dragan
Sanda BocaSanda Boca
Sanda Boca
Ioan BotizIoan Botiz
Ioan Botiz
It is well known that surface topography plays an important role in cell behavior, including adhesion, migration, orientation, elongation, proliferation and differentiation. Studying these cell functions is essential in order to better understand and control specific characteristics of the cells and thus to enhance their potential in various biomedical applications. This review proposes to investigate the extent to which various surface relief patterns, imprinted in biopolymer films or in polymeric films coated with biopolymers, by utilizing specific lithographic techniques, influence cell behavior and development. We aim to understand how characteristics such as shape, dimension or chemical functionality of surface relief patterns alter the orientation and elongation of cells, and thus, finally make their mark on the cell proliferation and differentiation. We infer that such an insight is a prerequisite for pushing forward the comprehension of the methodologies and technologies used in tissue engineering applications and products, including skin or bone implants and wound or fracture healing.

12 May 2021 in Polymers
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Journal Article
Open access
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IBIulia Babutan
Iulia Babutan
ALAlexandra-Delia Lucaci
Alexandra-Delia Lucaci
Ioan BotizIoan Botiz
Ioan Botiz
Pathogenic microbes are the main cause of various undesired infections in living organisms, including humans. Most of these infections are favored in hospital environments where humans are being treated with antibiotics and where some microbes succeed in developing resistance to such drugs. As a consequence, our society is currently researching for alternative, yet more efficient antimicrobial solutions. Certain natural and synthetic polymers are versatile materials that have already proved themselves to be highly suitable for the development of the next-generation of antimicrobial systems that can efficiently prevent and kill microbes in various environments. Here, we discuss the latest developments of polymeric structures, exhibiting (reinforced) antimicrobial attributes that can be assembled on surfaces and coatings either from synthetic polymers displaying antiadhesive and/or antimicrobial properties or from blends and nanocomposites based on such polymers.