Align Technology, Inc.

Ulab Systems Inc.

Tensegrity Technologies, Inc.

Available for Licensing

Inpronto Inc.

Huafeng Wen

Muhammad Chishti

Timothy N Jones

Andrew C Beers

Phillips Alexander Benton

Eric E Kuo

Amir Abolfathi

Loc X Phan

Ross J Miller

Peter G Knopp

Brian Freyburger

Kelsey D Wirth

Elena Pavloskaia

Frank Zhenhuan Liu

Gregory P Bala

Sergey Nikolskiy

Srinivas Kaza

Elena I Pavlovskaia

Gregg E Freebury

Neal J Beidleman

Ka Man Cheang

Sue Ann Latterman

J Kevin Miller

Michael S Latterman

Michael A Boennighausen

Len Hedge

Woncheol Choi

Eric Wu

Venkata Surya Sarva

Muhammad Ziaullah Khan Chishti

Bao M Tran

Henry Cao

Louis Schueller

Surya Sarva

Thomas Ross Pitts

Duncan Yardley Brown

Gang Liu

Ruize Ma

Junru Zhao

Ashley Wen

Issa George Karkar

Kelsey Wirth

Zhenhuan Liu Frank

Rank Liu

Systems and methods are disclosed for cutting and trimming dental molds and oral appliances by receiving a digital model of teeth, determining a cutting loop path and applying a drape wall to the cutting loop to generate a simplified tooth base in a dental mold having an inner arch curve and an outer arch curve. The oral appliance may be formed on the dental mold and a cutter may be applied using a sweeping motion across the inner and outer arch curves.

Systems and methods for fabricating dental appliances or shells

Systems and methods are disclosed for fabrication of custom clothing with enhanced support for a body part by digitizing a 3D-model of a person, performing anatomy detection and localization of the body part, applying force analysis to design a structure that supports the body part, and fabricating the structure.

Systems and methods for designing and fabricating mass-customized products

Smile treatment planning systems and methods are described herein. One method for adjusting an image of a smile may generally comprise receiving a three-dimensional (3D) digital model of a dental arch of a patient, receiving a digital facial image of the patient which includes an image of one or more teeth of the patient when smiling, registering the 3D digital model to the one or more teeth of the patient from the digital facial image, correcting the 3D digital model for scale and distortion to create a corrected 3D digital model, and overlaying the corrected 3D digital model onto the digital facial image.

Smile treatment planning systems and methods

Indirect bonding tray systems are disclosed where the tray may generally comprise one or more individual modules each defining a receiving channel and configured for placement upon a dentition of a subject. A removal tab having a length may extend transversely relative to the individual module and a pivoting portion may be located away from the removal tab such that the removal tab is rotatable about the pivoting portion.

Indirect bonding tray system

Systems and methods are disclosed for treating teeth to correct for malocclusions. This may be accomplished in one variation by receiving a scanned dental model of a subject's dentition, determining a treatment plan having a plurality of incremental movements for repositioning one or more teeth of the subject's dentition, and fabricating one or more aligners correlating to a first subset of the plurality of incremental movements.

Orthodontic planning systems

A method for treating a subject's teeth. A target configuration for the subject's teeth is determined. Receiving features are produced on a dental base in response to the target configuration, the receiving features being configured to receive physical tooth models. The physical tooth models are assembled on the dental base to form a physical arch model. A dental aligner is produced using the physical arch model to move the subject's teeth to the target configuration. A method for making a multi-layer dental aligner includes placing a first layer of a first aligner-making material over one or more physical tooth models, conforming the first layer of the first aligner-making material to the surfaces of the one or more physical tooth models, placing a second layer of a second aligner-making material over the first layer of the first aligner-making material, and conforming the second layer of the second aligner-making material to the surfaces of the first layer of the first aligner-making material over the one or more physical tooth models to produce the multi-layer dental aligner. A method for making a non-uniform dental aligner includes non-uniformly heating the sheet of aligner-making material and holding the sheet of aligner-making material against one or more physical tooth models to produce the non-uniform dental aligner.

Treatment of teeth by aligners

Systems and methods are disclosed for fabricating a dental or oral appliance utilizing support structures. A three dimensional representation of the dentition of a patient may be captured and reconfigured for correcting one or more malocclusions. The oral appliance may be printed upon an inner structure which supports the oral appliance during fabrication. The inner structure may be subsequently removed once the oral appliance is completed.

Three-dimensional printed dental appliances using support structures

Method and apparatus for fabricating an oral appliance are described for correcting malocclusions on a dentition of a subject. A three-dimensional representation of the dentition may be captured and a free-form structure having a lattice structure which matches at least part of a surface of the dentition is generated. The lattice structure defines a plurality of open spaces such that the free-form structure is at least partially transparent. The lattice structure may then be manufactured by impregnating or covering a coating into or upon the lattice structure such that the oral appliance is formed.

Three-dimensional printed dental appliances using lattices

Systems and methods are disclosed to prevent interference between two physical tooth models in a physical dental arch model by acquiring the coordinates of a plurality of points on the surfaces of each of the two physical tooth models and digitally representing the surfaces of each of the two physical tooth models by a mesh of points in three dimensions using the acquired coordinates. The meshes representing the surfaces of the two physical tooth models intersect at least at one point to form an overlapping portion. The method also includes calculating the depth of the overlapping portion between the two meshes to quantify the interference of the two physical tooth models.

Preventing interference between tooth models

A system includes a plurality of tooth models each including computer code controlling its movement. The system also includes a tooth movement control system (TMCS) with a processor executing a dental manager module and with memory scoring a different tooth movement plan for each of the tooth models. In practice, the tooth movement plans are stored in the memory of each of the tooth models (e.g., a different tooth movement plan for each tooth model). Then, during tooth movement operation, each of the local control modules independently controls the tooth model to execute the tooth movement plan stored in the memory of the tooth model.

System and methods for tooth movement as a flock

Systems and methods are disclosed for treating teeth to correct for malocclusions. This may be accomplished by applying a series of labels to a digital dental model and applying a rolling ball process to identify tooth boundaries separating one tooth from a neighboring tooth and to also determine the crown/gum margin. The user may further assign regions to the dental model to indicate hard regions and soft regions. With the dental model labeled and defined, the user may then generate a treatment plan for moving the labeled and defined tooth or teeth relative to one another to correct for any malocclusions. Upon approval of the treatment plan, a series of 3D printed dental appliances or aligners to be worn in series by the patient may be fabricated to ultimately move the tooth or teeth to a desired position.

Tooth modeling system

A method for treating a subject's teeth. A target configuration for the subject's teeth is determined. Receiving features are produced on a dental base in response to the target configuration, the receiving features being configured to receive physical tooth models. The physical tooth models are assembled on the dental base to form a physical arch model. A dental aligner is produced using the physical arch model to move the subject's teeth to the target configuration.

Methods for fabricating dental appliances or shells

Growing community of inventors

Redwood Shores, CA, United States of America

Huafeng Wen