Systems and methods for moving a tooth using a light, continuous force are disclosed. In examples, a bracket has a surface which is mounted to a tooth, and a pair of wings defining a slot having oppositely disposed upper and lower surfaces that converge at an apex. A wire runs through the slot at a distance from the apex. And a tensioning device presses the wire against a surface of the slot, the system is configured so that the wire gradually moves toward the apex of the slot.

The present disclosure relates to an orthodontic system and a method of using the same to perform orthodontics. In one example, an orthodontic system is presented. The orthodontic system includes a tube having at least one sidewall and two opening ends, and a luting agent. The luting agent is disposed on at least a portion of one or more of the at least one sidewall of the tube and a portion of a surface of a tooth onto which the tube is directly attached or adhered. The two opening ends of the tube remain substantially open so that a wire can move along the tube.

A method of manufacturing customized ceramic labial/lingual orthodontic brackets by digital light processing, said method comprises measuring dentition data of a profile of teeth of a patient, wherein measuring dentition data is performed using a CT scanner or intra-oral scanner, based on the dentition data, creating a three dimensional computer-assisted design (3D CAD) model of the patient's teeth using reverse engineering, and saving the 3D CAD model on a computer, designing a 3D CAD bracket structure model for a single labial or lingual bracket structure, importing the 3D CAD bracket structure model into a Digital Light Processing (DLP) machine, directly producing the bracket by layer manufacturing.

In an embodiment, the present disclosure relates to a segmental distalization device that includes an elongate bar having a distal end and a mesial end, a distal base on the distal end of the elongate bar, a mesial base on the mesial end of the elongate bar, and an attachment member attached to at least one of the elongate bar, the distal base, and the mesial base. In some embodiments, the attachment member is operable to connect the segmental distalization device to an anchor via an elastic connector.

An orthodontic bracket assembly may include a mounting plate configured to be coupled to a tooth. A bracket member may include a single tie-wing having a superior tie-wing portion, an inferior tie-wing portion, and a slot defined between planar side walls of the superior and inferior tie-wing portions. Each of the superior and inferior tie-wing portions may include a curved surface extending at a mesial end of the tie-wing portion and a distal end of the tie-wing portion.

A method of manufacturing customized ceramic labial/lingual orthodontic brackets by digital light processing, said method comprises measuring dentition data of a profile of teeth of a patient, wherein measuring dentition data is performed using a CT scanner or intra-oral scanner, based on the dentition data, creating a three dimensional computer-assisted design (3D CAD) model of the patient's teeth using reverse engineering, and saving the 3D CAD model on a computer, designing a 3D CAD bracket structure model for a single labial or lingual bracket structure, importing the 3D CAD bracket structure model into a Digital Light Processing (DLP) machine, directly producing the bracket by layer manufacturing.

An orthodontic bracket is provided, including a backend surface, a frontend surface, a first side surface, a second side surface, and a passageway. The backend surface is adapted for attachment and is opposite the frontend surface. The first and second side surfaces are connected between the backend surface and the frontend surface. The passageway extends from the first side surface to the second side surface. The cross-section of the passageway includes an access opening, an archwire slot, a path portion, and at least one rotation portion. The access opening is configured to allow the archwire to enter the passageway. The archwire slot is configured to receive the archwire. The path portion connects the access opening and the archwire slot. The rotation portion is provided in the path portion to allow the archwire to change its orientation.

A pocket orthodontic bonding pad for attaching orthodontic attachments to teeth wherein the orthodontic attachment is mechanically secured within a bonding pad pocket with a design that allows a slight buffering flexibility under masticatory stress and ease of removal of the orthodontic attachment. Upon removal of locking tabs the orthodontic attachment may be removed with minimal force, and the remaining bonding pad polished from the teeth with ease, which is most advantageous for brackets that tend to break upon removal and create high stress forces upon tooth structure. The ease of removing orthodontic attachments allows maximum bonding strengths.

Systems and methods for moving a tooth using a light, continuous force are disclosed. In examples, a bracket has a surface which is mounted to a tooth, and a pair of wings defining a slot having oppositely disposed upper and lower surfaces that converge at an apex. A wire runs through the slot at a distance from the apex. And a tensioning device presses the wire against a surface of the slot, the system is configured so that the wire gradually moves toward the apex of the slot.

An orthodontic bracket is provided, which comprises an outer body, an elastomeric inner body coupled to the outer body, and a bracket base configured to couple to a tooth. The inner body of the outer body is disposed between the outer body and the bracket base. In an embodiment, a removable dental appliance comprises a plurality of polymeric shell portions each having one or more cavities shaped therein to receive one or more teeth and wherein each of the plurality of shell portions is formed to be separate from the other plurality of shell portions, wherein the bracket base is a polymeric shell portion.