Digitally predesigned positioning tray and custom restoration shell for immediate implantation prothesis: a digital...

Traditional implant surgery often requires multiple visits and physical templates for accurate placement. Prior research has shown that physical guides can be imprecise due to anatomical variations. No prior work had resolved the challenge of integrating surgical and restorative planning before surgery. This gap motivated the development of a digital workflow. Digital workflows have been explored in other dental fields but not for immediate implantation. The need for a unified digital approach remained unmet. This paper introduces a new method that combines planning and fabrication. The goal is to enhance accuracy and reduce procedural steps.

This study aimed to present a new digital workflow for immediate implantation prothesis. The technique integrates surgical and restorative planning before surgery. The method seeks to improve accuracy by using predesigned components. The positioning tray and restoration shell are fabricated together with the implant guide. This approach allows for premanufactured parts to be used during surgery. The restoration shell is designed to fit precisely after implantation. The study focuses on how this workflow reduces error tolerance. The authors propose this as a solution to current limitations in implant surgery.

The workflow begins with surgical planning using digital imaging. Based on this plan, a positioning tray is predesigned. A restoration shell is also created in the same digital process. These components are premanufactured alongside the implant guide. The restoration shell is hollowed out to fit the tissue surface. After implantation, the shell is placed using the positioning tray. A temporary abutment is used to bond the restoration. The positioning tray acts as a tooth-borne guide during placement.

The digital workflow allows for simultaneous design of the positioning tray and restoration shell. The restoration shell improves error tolerance during implantation. The positioning tray guides the placement of the restoration shell. The temporary abutment is bonded using the tray as a guide. The restoration shell is designed to fit the tissue surface precisely. This method reduces the need for multiple surgical visits. The workflow integrates surgical and restorative steps digitally. The authors report that this approach enhances procedural accuracy.

The authors propose that this digital workflow improves implantation accuracy. The predesigned components allow for precise placement during surgery. The restoration shell enhances error tolerance in the procedure. The positioning tray acts as a tooth-borne guide for the restoration. The workflow integrates surgical and restorative planning digitally. The authors suggest this method reduces procedural steps. The restoration shell is bonded using a temporary abutment. The workflow may improve outcomes in implant surgery.