Dr. Antonis Chaniotis DDS, MDSC
Chaniotis Antonis graduated from the University of Athens Dental School, Greece (1998). In 2003 he completed the three-year postgraduate program in Endodontics at the University of Athens Dental School.
Since 2003, he owns a limited to microscopic Endodontics private practice in Athens, Greece.
For the last ten years, he served as a clinical instructor affiliated with the undergraduate and postgraduate programs at the University of Athens, Athens Dental School, Endodontic department, Greece.
In 2012 he was awarded the title of Clinical fellow teacher at the University of Warwick, Warwick dentistry UK.
He lectures nationally and internationally, and he has published articles in local and international Journals.
Ιn 2015 he introduced a novel technique for the management of highly curved root canals and in 2022 he was invited to publish a narrative review in International Endodontic Journal about the management of curved and calcified canals. This review is among the 5 most downloaded papers of the International Endodontic Journal.
He currently serves as a member of the Hellenic Association of Endodontists (ESE member society), as country representative of the Hellenic Association of endodontists in ESE, as a certified member of the European Society of Endodontology (ESE) and international specialist member of the American Association of Endodontists (AAE).
Very recently he was elected as European Society of Endodontology certified members representative.
Topic:
“Management of curved and splitting root canal systems. Instruments and techniques”
Abstract:
The design and biological objectives of manipulating root canal treatments are thoroughly delineated in the contemporary field of Endodontics. Achieving these objectives in uncomplicated root canal pathways is generally perceived as a straightforward procedure with the multitude of instrumentation systems available today. Challenges arise, however, in the biomechanical instrumentation and obturation of root canal systems when confronted with complex internal dental anatomy. Anatomical pathways featuring curvatures, bifurcations or trifurcations are particularly regarded as exceedingly challenging for both instrumentation and obturation procedures. The established fundamental endodontic techniques and instrumentation protocols may prove to be intricate when applied to such cases. This lecture endeavors to elucidate the requisite devices, instruments, and clinical skills essential for effectively managing anatomical pathways marked by curved and splitting configurations in root canals.
Learning objectives:
1. Comprehend the intricacies of complex dental anatomy:
o Understand the diverse internal anatomical configurations within human teeth, particularly those involving curved and splitting root canal pathways, and appreciate the challenges they pose to conventional endodontic procedures.
2. Evaluate and select appropriate instrumentation systems:
o Develop the ability to assess various instrumentation systems available in contemporary Endodontics and choose the most suitable tools for effectively navigating and treating curved and splitting root canal anatomical pathways.
3. Master biomechanical instrumentation techniques:
o Acquire proficiency in employing advanced biomechanical instrumentation techniques tailored to address the complexities associated with curved and splitting root canal configurations, ensuring thorough cleaning and shaping of the canal space.
4. Refine obturation skills for challenging anatomies:
o Enhance skills related to root canal obturation, with a specific focus on adapting and implementing techniques that ensure a complete and effective seal in cases of curved and splitting root canal pathways, thereby minimizing the risk of treatment failure.
5. Integrate clinical decision-making in managing complex cases:
o Develop the ability to apply critical thinking and clinical judgment in the context of intricate root canal anatomies, integrating theoretical knowledge with practical skills to formulate effective treatment plans for cases involving curved and splitting configurations.