The invention relates to an additive method for producing a dental working model for an articulator, comprising the steps: additively producing a base plate for attachment to the articulator, and additively producing a dental model, wherein the base plate and the dental model are configured to be fixed to one another in a positionally secure manner. Another object of the invention is an additively produced dental working model for an articulator, comprising an additively produced base plate configured for attachment to the articulator, and an additively produced dental model, wherein the base plate and the dental model are configured to be fixed to one another in a positionally secure manner.

One embodiment of the apparatus and method comprises a physical recording instrument (2000) for forming a right and a left side engraved analog (150), the analogs (150) being subsequently attached to a physical articulating instrument (3000), the analogs (150) with timing controls then serving as guides for simulating the motion of mounted patient dental models (142). Another embodiment comprises a digital recording system (4000) for generating the right and left side virtual engraved analogs (150), the analogs (150) being subsequently milled or digitally formed in a CNC rapid prototyping machine, the analogs (150) then being attached to the physical articulating instrument (3000), the analogs (150) with the timing controls serving as guides for simulating the motion. Some of the foregoing embodiments facilitate production of technologist fabricated dental restorative and orthodontic treatments. Another embodiment comprises the digital recording system (4000) for generating the right and left side virtual engraved analogs (150) and a virtual articulating instrument (5000) for virtual simulating of mandibular jaw motion. Some of these digital workflow embodiments facilitate production of milled or digitally fabricated dental restorative and orthodontic treatments.

One embodiment of the apparatus and method comprises a physical recording instrument (2000) for forming a right and a left side engraved analog (150), the analogs (150) being subsequently attached to a physical articulating instrument (3000), the analogs (150) with timing controls then serving as guides for simulating the motion of mounted patient dental models (142). Another embodiment comprises a digital recording system (4000) for generating the right and left side virtual engraved analogs (150), the analogs (150) being subsequently milled or digitally formed in a CNC rapid prototyping machine, the analogs (150) then being attached to the physical articulating instrument (3000), the analogs (150) with the timing controls serving as guides for simulating the motion. Some of the foregoing embodiments facilitate production of technologist fabricated dental restorative and orthodontic treatments. Another embodiment comprises the digital recording system (4000) for generating the right and left side virtual engraved analogs (150) and a virtual articulating instrument (5000) for virtual simulating of mandibular jaw motion. Some of these digital workflow embodiments facilitate production of milled or digitally fabricated dental restorative and orthodontic treatments.

An articulator having a maxillary member and a mandibular member, which are connected to each other via condylar articulations, wherein a maxillary adaptor is attachable or attached at the maxillary member and a mandibular adaptor at the mandibular member, wherein a maxillary alignment member especially is form-fittingly connected to the maxillary adaptor and a mandibular alignment member is especially form-fittingly connected with the mandibular adaptor, and wherein the alignment members are automatically alignable to each other and comprising scanning members, by means of which the arrangement of alignment members and adaptors is scannable in a scanner and especially the relative position thereof moreover is detectable in relation to the articulator via the scanner.

A disposable dental articulator is proposed. The disposable dental articulator includes a body, a socket coupled to the body and a fixing portion one side of which is slidably coupled to the first socket and the other side of which is configured to be coupled to one of a maxillary dental model and a mandibular dental model.

A disposable dental articulator is proposed. The disposable dental articulator includes a body, a socket coupled to the body and a fixing portion one side of which is slidably coupled to the first socket and the other side of which is configured to be coupled to one of a maxillary dental model and a mandibular dental model.

The present invention simply and accurately measures a position and an orientation of a jaw in an oral cavity of a patient in dental treatment. A dental measuring instrument includes a mounting fixture mounted in an oral cavity of a patient, an arm part connected to the mounting fixture, and extending from the mounting fixture toward outside of the oral cavity of the patient, and a tip part provided on a tip of the arm part, and the arm part is deformable so as to change a position and an orientation of the tip part.

The present invention simply and accurately measures a position and an orientation of a jaw in an oral cavity of a patient in dental treatment. A dental measuring instrument includes a mounting fixture mounted in an oral cavity of a patient, an arm part connected to the mounting fixture, and extending from the mounting fixture toward outside of the oral cavity of the patient, and a tip part provided on a tip of the arm part, and the arm part is deformable so as to change a position and an orientation of the tip part.

An articulator is disclosed for simulation of a temporomandibular joint movement, the articulator including a first articulator element (1) and a second articulator element (2), wherein the first articulator element (1) includes an engagement means (3) and the second articulator element (2) includes a receiver (4) for the engagement means (3).

An occlusion control system and a corresponding method for occlusion control, in which dimensional data of a digital upper and lower jaw model are stored on a data processing and control device, an upper jaw representative model and a lower jaw representative model are manually moved relative to one another in an adjustment plane, position changes of the upper jaw representative model and the lower jaw representative model are detected. An associated relative position between the upper and lower jaw models is calculated. If, in this relative position, there is a dental arch penetration and/or a dental arch decoupling from the upper and lower jaw model, a length of at least one of at least three spacer elements between the upper jaw representative model and the lower jaw representative model is adjusted, which brings about a haptically detectable change in the representative model.