Regenerative Endodontics

Guided Intraradicular Hard Tissue-Inducing Post

A guided full-length intraradicular post designed to induce controlled hard tissue formation inside the root canal.

The post shown straight: clamping head, segmented intraradicular body, and tapered tip.
As manufactured
The same post flexed to follow a curved root canal.
Adapted to canal
The post is placed, flexes to follow the canal anatomy, and guides hard tissue formation as the canal closes.
Overview

What it is

The device combines a superior clamping part with an inferior intraradicular hard tissue-inducing section, allowing it to be secured while guiding regeneration deep within the canal.

Hard tissue formation is directed using a main core, a bioactive layer, reinforcing rings, and elastic biocompatible rings, with an optional detachable metal core that supports electronic apex locator guidance during placement.

Technology & Mechanism

How it works

Longitudinal cross-section of the intraradicular post showing the layered internal structure and tapered tip.

Cross-section · intraradicular section

  • 222Main coreThe central structural spine running the full length of the post.
  • 224Bioactive layerReleases bioactive particles to induce controlled hard tissue formation.
  • 226Reinforcing ringsSegmented rings (226a) that hold shape while permitting flexion.
  • 228Elastic biocompatible ringsCompliant rings (228a) that let the post adapt to curved anatomy.
  • 320Tapered tipGuides advancement toward the apex during placement.
Figure — longitudinal section, reference numerals as filed
Key Features

What sets it apart

Feature 01
Simplifies endodontic workflow
Feature 02
Supports guided root canal closure
Feature 03
Reduces extensive instrumentation
Feature 04
Adapts to curved root canal anatomy
Feature 05
Bioactive and biocompatible design
Applications

Where it applies

Endodontic therapyVital pulp therapy researchRegenerative dentistryRoot canal closureDental biomaterial research
Development Pathway

From concept to clinic

Material study
Mechanical prototype
Degradation testing
Preclinical dental model
Clinical feasibility evaluation
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