Salvatore Sauro

Prof. Salvatore Sauro

CEU CARDENAL HERRERA UNIVERSITY (UCH-CEU)
+1
orcid

Research Focus & Metrics

Academic Career Length

22Years (2005-Present)

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

Representative Publications

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28 November 2005 in European Journal of Oral Sciences
Verified
Journal Article
Closed access
PDF file
MCMilena Cadenaro
Milena Cadenaro
FAFrancesca Antoniolli
Francesca Antoniolli
Salvatore SauroSalvatore Sauro
Salvatore Sauro
FTFranklin R. Tay
Franklin R. Tay
Roberto Di LenardaRoberto Di Lenarda
Roberto Di Lenarda
Lorenzo BreschiLorenzo Breschi
Lorenzo Breschi

1 November 2015 in Trends in Biotechnology
Verified
Journal Article
Closed access
GPGislaine C. Padovani
Gislaine C. Padovani
VFVictor Feitosa
Victor Feitosa
Salvatore SauroSalvatore Sauro
Salvatore Sauro
FTFranklin Tay
Franklin Tay
GDGabriela Durán
Gabriela Durán
NDNelson Duran
Nelson Duran

Verified
Journal Article
Open access
PDF file
Shariq NajeebShariq Najeeb
Shariq Najeeb
Zohaib KhurshidZohaib Khurshid
Zohaib Khurshid
Muhammad Sohail ZafarMuhammad Sohail Zafar
Muhammad Sohail Zafar
Abdul Samad KhanAbdul Samad Khan
Abdul Samad Khan
SZSana Zohaib
Sana Zohaib
Ihtesham RehmanIhtesham Rehman
Ihtesham Rehman
Glass ionomer cements (GICs) are being used for a wide range of applications in dentistry. In order to overcome the poor mechanical properties of glass ionomers, several modifications have been introduced to the conventional GICs. Nanotechnology involves the use of systems, modifications or materials the size of which is in the range of 1–100 nm. Nano-modification of conventional GICs and resin modified GICs (RMGICs) can be achieved by incorporation of nano-sized fillers to RMGICs, reducing the size of the glass particles, and introducing nano-sized bioceramics to the glass powder. Studies suggest that the commercially available nano-filled RMGIC does not hold any significant advantage over conventional RMGICs as far as the mechanical and bonding properties are concerned. Conversely, incorporation of nano-sized apatite crystals not only increases the mechanical properties of conventional GICs, but also can enhance fluoride release and bioactivity. By increasing the crystallinity of the set matrix, apatites can make the set cement chemically more stable, insoluble, and improve the bond strength with tooth structure. Increased fluoride release can also reduce and arrest secondary caries. However, due to a lack of long-term clinical studies, the use of nano-modified glass ionomers is still limited in daily clinical dentistry. In addition to the in vitro and in vivo studies, more randomized clinical trials are required to justify the use of these promising materials. The aim of this paper is to review the modification performed in GIC-based materials to improve their physicochemical properties.

1 May 2010 in Journal of Dentistry
Verified
Journal Article
Closed access
ZWZhejun Wang
Zhejun Wang
YSYue Sa
Yue Sa
Salvatore SauroSalvatore Sauro
Salvatore Sauro
HCHao Chen
Hao Chen
WXWenzhong Xing
Wenzhong Xing
YWYining Wang
Yining Wang

28 October 2022 in Journal of Dentistry
Verified
Journal Article
Open access
António HS DelgadoAntónio HS Delgado
António HS Delgado
Salvatore SauroSalvatore Sauro
Salvatore Sauro
ALAdriano Lima
Adriano Lima
ALAlessandro D Loguercio
Alessandro D Loguercio
ABAlvaro Della Bona
Alvaro Della Bona
Falk SchwendickeFalk Schwendicke
Falk Schwendicke
To develop a risk of bias tool for pre-clinical dental materials research studies that aims to support reporting of future investigations and improve assessment in systematic reviews. A four-stage process following EQUATOR network recommendations was followed, which included project launch, literature review, Delphi process and the tool finalization. With the support of the European Federation of Conservative Dentistry (EFCD) and the Dental Materials Group of the International Association for Dental Research (DMG-IADR), a total of 26 expert stakeholders were included in the development and Delphi vote of the initial proposal. The proposal was built using data gathered from the literature review stage. During this stage, recent systematic reviews featuring dental materials research, and risk of bias tools found in the literature were comprehensively scanned for bias sources. The experts thus reached a consensus for the items, domains and judgement related to the tool, allowing a detailed guide for each item and corresponding signalling questions. The tool features nine items in total, spread between 4 domains, pertaining to the following types of bias: bias related to planning and allocation (D1), specimen preparation (D2), outcome assessment (D3) and data treatment and outcome reporting (D4). RoBDEMAT, as presented, features signalling questions and a guide that can be used for RoB judgement. Its use as a checklist is preferred over a final summary score. RoBDEMAT is the first risk of bias tool for pre-clinical dental materials research, supported and developed by a broad group of expert stakeholders in the field, validating its future use. This new tool will contribute the study field by improving the scientific quality and rigour of dental materials research studies and their systematic reviews. Such studies are the foundation and support of future clinical research and evidence-based decisions.

1 June 2007 in Dental Materials
Verified
Journal Article
Closed access
Salvatore SauroSalvatore Sauro
Salvatore Sauro
DPDavid H. Pashley
David H. Pashley
MMMarco Montanari
Marco Montanari
SCStefano Chersoni
Stefano Chersoni
RCRicardo M. Carvalho
Ricardo M. Carvalho
CPCarlo Prati
Carlo Prati