Adriana P. Manso

Dr. Adriana P. Manso

Department of Oral Health Sciences, The University of British Columbia
orcid

Research Focus & Metrics

Academic Career Length

12Years (2015-Present)

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

Representative Publications

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1 September 2015 in Dental Materials
Verified
Journal Article
Closed access
HVHugo A. Vidotti
Hugo A. Vidotti
AMAdriana P. Manso
Adriana P. Manso
VLVictor Leung
Victor Leung
AVAccácio L. Do Valle
Accácio L. Do Valle
Frank K. KoFrank K. Ko
Frank K. Ko
RCRicardo Marins de Carvalho
Ricardo Marins de Carvalho

1 January 2019 in Journal of Applied Oral Science
Verified
Journal Article
Open access
PDF file
LCLuana Dutra de Carvalho
Luana Dutra de Carvalho
BPBernardo Urbanetto Peres
Bernardo Urbanetto Peres
HMHazuki Maezono
Hazuki Maezono
YSYa Shen
Ya Shen
MHMarkus Haapasalo
Markus Haapasalo
AMAdriana P. Manso
Adriana P. Manso
Keywords: Antibacterial; Doxycycline; Drug-release; Electrospinning

29 September 2022 in Dental Materials
Verified
Journal Article
Closed access
MLMaria Luísa Leite
Maria Luísa Leite
CACaroline Anselmi
Caroline Anselmi
ISIgor Paulino Mendes Soares
Igor Paulino Mendes Soares
AMAdriana P. Manso
Adriana P. Manso
JHJosimeri Hebling
Josimeri Hebling
CCCarlos Alberto De Souza Costa
Carlos Alberto De Souza Costa

4 November 2022 in Scientific Reports
Verified
Journal Article
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PDF file
PCPatricia Comeau
Patricia Comeau
BPBeatriz Panariello
Beatriz Panariello
SDSimone Duarte
Simone Duarte
AMAdriana P. Manso
Adriana P. Manso
Oral biofilms are directly linked to one of the most common chronic human diseases, dental caries. Resin-based dental materials have significant potential to replace amalgam, however they lack sufficient antimicrobial power. This innovative study investigates a curcumin-loaded dental resin which can be utilized in an antimicrobial photodynamic therapy (aPDT) approach. The study evaluated the effects of curcumin loading on resin physicochemical, mechanical, and adhesive properties, as well as the antimicrobial response associated with blue light activation. Preliminary tests involving degree of conversion (DC) and sample integrity determined the optimal loading of curcumin to be restricted to 0.05 and 0.10 wt%. These optimal loadings were tested for flexural strength (FS), water sorption (WS) and solubility (SL), shear bond strength to dentin (SBS), and viability of Streptococcus mutans under 14.6 J/cm2 blue light or dark conditions, in 6 h and 24 h biofilms. The results demonstrated that 0.10 wt% curcumin had minimal impact on either FS or SBS, but detectably increased WS and SL. A 2 log10 (CFU/mL) reduction in S. mutans after light application in both 6 h and 24 h biofilms were corroborated by CLSM imaging and highlighted the significant potential of this novel aPDT approach with resin-based dental materials.

30 November 2023 in Pharmaceutics
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Journal Article
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PCPatricia Comeau
Patricia Comeau
AMAdriana P. Manso
Adriana P. Manso
Dental caries is a highly preventable and costly disease. Unfortunately, the current management strategies are inadequate at reducing the incidence and new minimally invasive strategies are needed. In this study, a systematic evaluation of specific light parameters and aqueous curcumin concentrations for antimicrobial photodynamic therapy (aPDT) was conducted. Aqueous solutions of curcumin were first prepared and evaluated for their light absorbance after applying different ~56 mW/cm2 blue light treatments in a continuous application mode. Next, these same light treatments as well as different application modes were applied to the curcumin solutions and the molar absorptivity coefficient, reactive oxygen species (ROS) release, minimum inhibitory concentration (MIC), and minimum bactericidal concentration (MBC) for Streptococcus mutans and the MIC and minimum fungicidal concentration (MFC) for Candida albicans were measured. After up to 1 min of light treatment, the molar absorptivity of curcumin when added to culture media was lower than that for water only; however, at higher energy levels, this difference was not apparent. There was a noted dependence on both ROS type and cariogenic microorganism species on the sensitivity to both blue light treatment and application mode. In conclusion, this study provides new information towards improving the agonistic potential of aPDT associated with curcumin against cariogenic microorganisms.

1 January 2020 in Journal of Applied Oral Science
Verified
Journal Article
Open access
PDF file
SMSara N. Makhdoom
Sara N. Makhdoom
KCKaren M. Campbell
Karen M. Campbell
RCRicardo Marins Carvalho
Ricardo Marins Carvalho
AMAdriana P. Manso
Adriana P. Manso
Objectives To compare the microtensile bond strength (µTBS) and depth of cure (DOC) of bulk-fill composites cured by monowave (MW) and polywave (PW) LED units using different curing times. Methodology Three composites were tested: Tetric EvoCeram Bulk Fill (TBF), Filtek Bulk Fill (FBF), and Tetric EvoCeram (T; control). Flat dentin surfaces treated with adhesive (AdheSE Universal®, Ivoclar Vivadent) were bonded with 4 mm cylindrical samples of each bulk-fill composite material (n=6) and cured with monowave (Satelec) or polywave (Bluephase Style) curing units for 10 or 20 seconds. After 24 hours, teeth were sectioned into individual 0.9 mm2 beams and tested for µTBS. Failure modes were analysed. Moreover, the DOC scrape test (IOS 4090) was completed (n=5) following the same curing protocols. Two-way ANOVA (a=0.05) was performed, isolating light-curing units. Results For samples cured with the MW light-curing unit, no significant effects were observed in the µTBS results between any of the resin composite brands and the curing times. Conversely, when resins were cured with a PW light unit, a significant effect was observed for TBF resin. In general, bulk-fill composites presented greater DOC and longer curing time resulted in higher DOC for all composites. Conclusion The µTBS of the composites to dentin was not affected by the curing mode of the resins, except for TBF cured with PW light unit. Bulk-fill composites exhibit greater DOC than conventional resin-based composites.