Maxime Ducret

Dr. Maxime Ducret

Institut de Biologie et Chimie des Protéines, Lyon, France

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

View All Publications
5 September 2017 in Journal of Healthcare Engineering
Verified
Journal Article
Open access
PDF file
RRRaphaël Richert
Raphaël Richert
AGAlexis Goujat
Alexis Goujat
LVLaurent Venet
Laurent Venet
GVGilbert Viguie
Gilbert Viguie
SVStéphane Viennot
Stéphane Viennot
Maxime DucretMaxime Ducret
Maxime Ducret
To overcome difficulties associated with conventional techniques, impressions with IOS (intraoral scanner) and CAD/CAM (computer-aided design and manufacturing) technologies were developed for dental practice. The last decade has seen an increasing number of optical IOS devices, and these are based on different technologies; the choice of which may impact on clinical use. To allow informed choice before purchasing or renewing an IOS, this article summarizes first the technologies currently used (light projection, distance object determination, and reconstruction). In the second section, the clinical considerations of each strategy such as handling, learning curve, powdering, scanning paths, tracking, and mesh quality are discussed. The last section is dedicated to the accuracy of files and of the intermaxillary relationship registered with IOS as the rendering of files in the graphical user interface is often misleading. This overview leads to the conclusion that the current IOS is adapted for a common practice, although differences exist between the technologies employed. An important aspect highlighted in this review is the reduction in the volume of hardware which has led to an increase in the importance of software-based technologies.

1 June 2021 in Journal of Dental Research
Verified
Journal Article
Closed access
PDF file
CMC M Mörch
C M Mörch
SAS Atsu
S Atsu
WCW Cai
W Cai
XLX Li
X Li
SMS A Madathil
S A Madathil
Maxime DucretMaxime Ducret
Maxime Ducret
Dentistry increasingly integrates artificial intelligence (AI) to help improve the current state of clinical dental practice. However, this revolutionary technological field raises various complex ethical challenges. The objective of this systematic scoping review is to document the current uses of AI in dentistry and the ethical concerns or challenges they imply. Three health care databases (MEDLINE [PubMed], SciVerse Scopus, and Cochrane Library) and 2 computer science databases (ArXiv, IEEE Xplore) were searched. After identifying 1,553 records, the documents were filtered, and a full-text screening was performed. In total, 178 studies were retained and analyzed by 8 researchers specialized in dentistry, AI, and ethics. The team used Covidence for data extraction and Dedoose for the identification of ethics-related information. PRISMA guidelines were followed. Among the included studies, 130 (73.0%) studies were published after 2016, and 93 (52.2%) were published in journals specialized in computer sciences. The technologies used were neural learning techniques for 75 (42.1%), traditional learning techniques for 76 (42.7%), or a combination of several technologies for 20 (11.2%). Overall, 7 countries contributed to 109 (61.2%) studies. A total of 53 different applications of AI in dentistry were identified, involving most dental specialties. The use of initial data sets for internal validation was reported in 152 (85.4%) studies. Forty-five ethical issues (related to the use AI in dentistry) were reported in 22 (12.4%) studies around 6 principles: prudence (10 times), equity (8), privacy (8), responsibility (6), democratic participation (4), and solidarity (4). The ratio of studies mentioning AI-related ethical issues has remained similar in the past years, showing that there is no increasing interest in the field of dentistry on this topic. This study confirms the growing presence of AI in dentistry and highlights a current lack of information on the ethical challenges surrounding its use. In addition, the scarcity of studies sharing their code could prevent future replications. The authors formulate recommendations to contribute to a more responsible use of AI technologies in dentistry.

23 September 2024 in Journal of Dental Research
Verified
Journal Article
Open access
Maxime DucretMaxime Ducret
Maxime Ducret
EWE. Wahal
E. Wahal
DGD. Gruson
D. Gruson
SAS. Amrani
S. Amrani
RRR. Richert
R. Richert
Falk SchwendickeFalk Schwendicke
Falk Schwendicke
Artificial intelligence systems (AISs) gain relevance in dentistry, encompassing diagnostics, treatment planning, patient management, and therapy. However, questions about the generalizability, fairness, and transparency of these systems remain. Regulatory and governance bodies worldwide are aiming to address these questions using various frameworks. On March 13, 2024, members of the European Parliament approved the Artificial Intelligence Act (AIA), which emphasizes trustworthiness and human-centeredness as relevant aspects to regulate AISs beyond safety and efficacy. This review presents the AIA and similar regulatory and governance efforts in other jurisdictions and lays out that regulations such as the AIA are part of a complex ecosystem of interdependent and interwoven legal requirements and standards. Current efforts to regulate dental AISs require active input from the dental community, with participation of dental research, education, providers, and patients being relevant to shape the future of dental AISs.

3 August 2020 in Journal of Materials Chemistry B
Verified
Journal Article
Open access
PDF file
MBMourad Bekhouche
Mourad Bekhouche
MBMarie Bolon
Marie Bolon
FCFanny Charriaud
Fanny Charriaud
MLMyriam Lamrayah
Myriam Lamrayah
DCDavid Da Costa
David Da Costa
Jean-Christophe FARGESJean-Christophe FARGES
Jean-Christophe FARGES
Nanocomposite fibrin-based hydrogel with antibacterial and antibiofilm properties, safe for dental pulp mesenchymal stem cells.

21 October 2022 in Journal of Dentistry
Verified
Journal Article
Closed access
Maxime DucretMaxime Ducret
Maxime Ducret
CMCarl-Maria Mörch
Carl-Maria Mörch
TKTeodora Karteva
Teodora Karteva
JFJulian Fisher
Julian Fisher
Falk SchwendickeFalk Schwendicke
Falk Schwendicke

6 August 2015 in Frontiers in Physiology
Verified
Journal Article
Open access
PDF file
Maxime DucretMaxime Ducret
Maxime Ducret
HFHugo Fabre
Hugo Fabre
ODOlivier Degoul
Olivier Degoul
GAGianluigi Atzeni
Gianluigi Atzeni
CMColin McGuckin
Colin McGuckin
Jean-Christophe FARGESJean-Christophe FARGES
Jean-Christophe FARGES
In recent years, mesenchymal cell-based products have been developed to improve surgical therapies aimed at repairing human tissues. In this context, the tooth has recently emerged as a valuable source of stem/progenitor cells for regenerating orofacial tissues, with easy access to pulp tissue and high differentiation potential of dental pulp mesenchymal cells. International guidelines now recommend the use of standardized procedures for cell isolation, storage and expansion in culture to ensure optimal reproducibility, efficacy and safety when cells are used for clinical application. However, most dental pulp cell-based medicinal products manufacturing procedures may not be fully satisfactory since they could alter the cells biological properties and the quality of derived products. Cell isolation, enrichment and cryopreservation procedures combined to long-term expansion in culture media containing xeno- and allogeneic components are known to affect cell phenotype, viability, proliferation and differentiation capacities. This article focuses on current manufacturing strategies of dental pulp cell-based medicinal products and proposes a new protocol to improve efficiency, reproducibility and safety of these strategies.