Enamel Interface Formation
Enamel Interface Formation - Related Videos
08:26
Development of Amelogenin-chitosan Hydrogel for In Vitro Enamel Regrowth with a Dense Interface
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Cited by 32 •
2014
In this article, we describe a protocol for fabricating an amelogenin-chitosan hydrogel for superficial enamel reconstruction. Organized in situ growth of apatite crystals in the hydrogel formed a dense enamel-restoration interface, which will improve the effectiveness and durability of restorations.
06:09
P300-Based Brain-Computer Interface Speller Performance Estimation with Classifier-Based Latency Estimation
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Cited by 1 •
2023
This article presents a method for estimating same-day P300 speller Brain-Computer Interface (BCI) accuracy using a small testing dataset.
02:04
Protein-protein Interfaces
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2020
Many proteins form complexes to carry out their functions, making protein-protein interactions (PPIs) essential for an organism's survival. Most PPIs are stabilized by numerous weak noncovalent chemical forces. The physical shape of the interfaces determines the way two proteins interact. Many globular proteins have closely-matching shapes on their surfaces, which form a large number of weak bonds. Additionally, many PPIs occur between two helices or between a surface cleft and a polypeptide...
08:12
Micro-dissection of Enamel Organ from Mandibular Incisor of Rats Exposed to Environmental Toxicants
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Cited by 7 •
2018
Understanding enamel formation and possible alterations requires the study of ameloblast activity. Here, we describe a reliable and consistent method to micro-dissect enamel organs containing secretion- and maturation-stage ameloblasts that may be used for further quantitative and qualitative experimental procedures.
11:13
Analysis of Contact Interfaces for Single GaN Nanowire Devices
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Cited by 1 •
2013
A technique was developed that removes Ni/Au contact metal films from their substrate to allow for the examination and characterization of the contact/substrate and contact/NW interfaces of single GaN nanowire devices.
FAQs
Reciprocal signaling between ameloblasts and odontoblasts coordinates the formation of the adjacent tissue environment during tooth development. Each cell type contributes to a developmental exchange that guides extracellular matrix production and organized mineral deposition. This coordination helps establish an interface whose structure and composition support functional integration between enamel and dentin.
A gradual transition in composition and structure helps distribute the change between mineralized enamel and adjacent dentin rather than concentrating it at an abrupt boundary. This organization is relevant to tooth strength and mechanical behavior. In bioengineering, reproducing this transition may help engineered or restorative interfaces behave more like natural tissue.
Extracellular matrices provide a developmental framework for organized mineral deposition at the developing interface. Their production is linked to reciprocal communication between ameloblasts and odontoblasts, so the matrix is not simply a passive material. By guiding mineral deposition, it helps establish the tissue transition whose organization influences structural integration and tooth strength.
Natural formation depends on living ameloblasts and odontoblasts exchanging signals during tooth development. A bioengineered approach instead applies knowledge of that exchange, matrix guidance, and mineral organization when designing biomimetic scaffolds, engineered tooth tissues, or restorative materials. The goal is not merely to place materials together, but to reproduce features associated with natural adhesion and mechanical behavior.
An evidence-guided workflow begins by examining reciprocal cell signaling, extracellular-matrix production, and organized mineral deposition in developing tooth tissues. Engineers can then use those principles to design biomimetic scaffolds, engineered tooth tissues, or restorative materials. Comparing the resulting interface with natural structural and compositional transitions helps focus development on adhesion and mechanical behavior.
It is relevant because understanding the interface may guide strategies for enamel repair, engineered tooth tissues, and restorative materials. Designs that better reproduce natural adhesion and mechanical behavior could reduce interface failure, while biomimetic scaffolds may support broader regenerative-dentistry goals. The central outcome is improved compatibility between engineered materials or tissues and adjacent dental structures.