Orthodontics on autopilot through digital customization and Programmed Non-Sliding Mechanics

Area of Science:

• Orthodontics
• Biomechanical Engineering

Background:

• Traditional orthodontic treatments often require auxiliary devices like power chains or springs to achieve specific tooth movements, such as opening or closing spaces.
• These auxiliaries are necessary because conventional bracket systems are limited in their ability to control all six degrees of freedom in tooth movement.

Purpose of the Study:

• To evaluate the InBrace system's capability in achieving orthodontic tooth movement across all six degrees of freedom.
• To determine if the InBrace system, through digital customization and Programmed Non-Sliding Mechanics, can independently manage space opening and closing.

Main Methods:

• The InBrace system utilizes digital customization to program precise tooth movements.
• It employs Programmed Non-Sliding Mechanics, a novel approach to orthodontic mechanics.
• The system's ability to control six degrees of freedom, including space management, was assessed.

Main Results:

• The InBrace system demonstrated the capability to achieve programmed tooth movement in all six degrees of freedom.
• Specifically, the system successfully managed space opening and closing without the need for traditional auxiliary appliances.
• Digital customization and Programmed Non-Sliding Mechanics are key to this enhanced control.

Conclusions:

• The InBrace system offers a significant advancement in orthodontic treatment by providing complete control over all six degrees of freedom of tooth movement.
• This technology eliminates the reliance on auxiliary devices for space management, simplifying treatment protocols.
• The InBrace system represents a digitally customized, mechanically advanced solution for comprehensive orthodontic tooth movement.