Hydraulic Calcium Silicate Cement–Root Dentine Interfacial Layer

Understanding the interfacial layer (IFL) between hydraulic calcium silicate cements (CSCs) and root dentine is essential for optimising CSC performance and developing next-generation biomaterials. This scholarly review summarises current evidence on IFL composition, formation, structure, and clinical significance. An electronic search of PubMed, Web of Science, and Scopus identified relevant studies using 15 keywords, including 'interfacial layer.' A total of 115 articles were classified into three areas: CSC hydration, IFL formation and structure, and clinical implications. Evidence indicates that the IFL forms through hydration-driven reactions and intratubular mineralisation, creating mechanical interlocking and chemical bonding that improve interfacial integrity and sealing ability. These interactions may reinforce dentine, reduce microleakage, and maintain antibacterial activity against intracanal microorganisms, thereby enhancing endodontic outcomes. Further well-designed studies are needed to clarify the IFL's long-term behaviour under clinical conditions and optimise interfacial stability while preserving dentine integrity.

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Publication Details

Journal
Australian Endodontic Journal
Published
2026-10-14
DOI
https://doi.org/10.1111/aej.70130
Primary Topic
Endodontics and Root Canal Treatments
Type
article
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article

Hydraulic Calcium Silicate Cement–Root Dentine Interfacial Layer

Kee‐Yeon Kum, Yu Gu, Abbasali Khademi, Hiran Perinpanayagam et al.
Australian Endodontic Journal
Endodontics and Root Canal Treatments
article

Hydraulic Calcium Silicate Cement–Root Dentine Interfacial Layer

Kee‐Yeon Kum, Yu Gu, Abbasali Khademi, Hiran Perinpanayagam, J. Kim, Yoon Seon Lee, Yoshi Terauchi, Chengfei Zhang, Soojin Heo, Jun‐Sang Yoo, Qiang Zhu
article en

Abstract

Understanding the interfacial layer (IFL) between hydraulic calcium silicate cements (CSCs) and root dentine is essential for optimising CSC performance and developing next-generation biomaterials. This scholarly review summarises current evidence on IFL composition, formation, structure, and clinical significance. An electronic search of PubMed, Web of Science, and Scopus identified relevant studies using 15 keywords, including 'interfacial layer.' A total of 115 articles were classified into three areas: CSC hydration, IFL formation and structure, and clinical implications. Evidence indicates that the IFL forms through hydration-driven reactions and intratubular mineralisation, creating mechanical interlocking and chemical bonding that improve interfacial integrity and sealing ability. These interactions may reinforce dentine, reduce microleakage, and maintain antibacterial activity against intracanal microorganisms, thereby enhancing endodontic outcomes. Further well-designed studies are needed to clarify the IFL's long-term behaviour under clinical conditions and optimise interfacial stability while preserving dentine integrity.

Australian Endodontic Journal
Isfahan University of Medical Sciences (IR), Western University (CA), University of Connecticut (US), Shandong University (CN), American Association of Endodontists (US), National Health Insurance Service Ilsan Hospital (KR), Stomatology Hospital (CN), Jinan Stomatological Hospital (CN), Seoul National University Dental Hospital (KR), UConn Health (US), Temple University (US), University of Hong Kong (HK)
Openalex Percentile: Top 10%
Endodontics and Root Canal Treatments
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