Methods of designing and manufacturing customized dental prosthesis for periodontal or osseointegration and related systems

A method of manufacturing a dental implant to replace a non-functional natural tooth positioned in a jawbone of a specific pre-identified patient, the method comprising the steps of:

• receiving and accessing data describing an in-vivo dental anatomy of the specific pre-identified patient associated with the non-functional natural tooth prior to removal from the jawbone of the specific pre-identified patient, the in-vivo dental anatomy to include a three-dimensional outer surface shape of at least portions of a root of the non-functional natural tooth, and a three-dimensional outer surface shape of at least portions of a crown of the non-functional natural tooth and surrounding gum tissue to define received data comprising received in-vivo imaging data;
• forming at least one three-dimensional virtual model of at least portions of the non-functional natural tooth positioned in the jawbone of the specific pre-identified patient responsive to at least portions of the received in-vivo imaging data, the at least one three-dimensional virtual model of the non-functional natural tooth including a modeled virtual root portion and a modeled virtual crown portion;
• and
• designing the dental implant based upon the at least one three-dimensional virtual model of at least portions of the non-functional natural tooth, the step of designing the dental implant including the steps of:
• deriving a virtual occlusally-facing prosthesis interface shape from a virtual reduction of at least a substantial portion of the modeled virtual crown portion;
• forming a virtual dental implant body modeling a dental implant body, the virtual dental implant body including the virtual occlusally-facing prosthesis interface shape modeling a prosthesis interface of the dental implant body to receive an occlusally-facing dental prosthesis component, virtual occlusally-facing prosthesis interface shape to include a substantially three-dimensionally contoured custom surface shape correlated to a corresponding surface shape of the modeled virtual crown portion, and
• forming a virtual occlusally-facing dental prosthesis component modeling an occlusally-facing dental prosthesis component, the step of forming the virtual occlusally-facing dental prosthesis component including forming a complementing virtual dental implant body-receiving surface to define a complementing virtual interface surface modeling a complementing interface surface to receive occlusally-facing portions of the dental implant body, the prosthesis interface and the complementing interface surface to create a form locking fit therebetween;
• wherein the dental implant body includes a root body section comprising a titanium material, wherein the step of forming a virtual occlusally-facing dental prosthesis component comprises forming a virtual model of a transgingival cap modeling a transgingival cap, wherein the transgingival cap comprises a ceramic material, wherein the implant body includes a root body section, wherein the prosthesis interface includes an outward-facing circumferential edge, and wherein the method further comprises the step of:
• connecting the dental implant body with the transgingival cap at the prosthesis interface, the step of connecting performed prior to insertion of the root body section into the jawbone of the specific pre-identified patient;
• and
• wherein the transgingival cap is sized and shaped so that when connected to the dental implant body and when the root body section is inserted into the jawbone of the patient, the outward-facing circumferential edge of the prosthesis interface is substantially below an outer gum line of the specific pre-identified patient surrounding lingual-facing, labial-facing, and proximal-facing surfaces of the non-functional natural tooth as determined prior to extraction thereof from the jawbone of the patient.

A method of manufacturing a dental implant to replace a non-functional natural tooth positioned in a jawbone of a specific pre-identified patient, the method comprising the step of:

• designing the dental implant based upon at least one virtual model of at least portions of a non-functional natural tooth positioned in a jawbone of a specific pre-identified patient, the at least one three-dimensional virtual model of the non-functional natural tooth including a modeled virtual root portion and a modeled virtual crown portion, the step of designing the dental implant including the steps of:
• forming a virtual dental implant body modeling a dental implant body, the virtual dental implant body having a virtual occlusally-facing prosthesis interface modeling a prosthesis interface of the dental implant body to receive an occlusally-facing dental prosthesis component, the step of forming the virtual dental implant body including forming the virtual occlusally-facing prosthesis interface to include a three-dimensionally contoured custom implant interface surface shape derived from a virtually reduced model of a substantial portion of the modeled virtual crown portion, the three-dimensionally contoured custom implant interface surface shape correlated to a corresponding surface shape of the modeled virtual crown portion, and
• forming a virtual occlusally-facing dental prosthesis component modeling an occlusally-facing dental prosthesis component, the step of forming the virtual occlusally-facing dental prosthesis component including forming a complementing virtual dental implant body-receiving surface to define a complementing virtual interface surface modeling a complementing interface surface to receive occlusally-facing portions of the dental implant body, the prosthesis interface and the complementing interface surface to create a form locking fit therebetween;
• wherein the step of forming the virtual dental implant body includes:
• separating a portion of the at least one three-dimensional virtual model along a virtual bone-facing gum line representation, the separated portion including the modeled virtual root portion to define a virtual root body portion model,
• copying at least portions of the modeled virtual crown portion, the copy to include at least portions of the modeled virtual crown portion forming a base shape of the prosthesis interface,
• reducing dimensions of the at least portions of the modeled virtual crown portion to define a prosthesis interface model, and
• combining the virtual prosthesis interface model with the virtual root body portion model to form the virtual dental implant body;
• and
• employing one or more machining processes performed by a computer numerical control (CNC) based apparatus to form one or more portions of the dental implant body, including the prosthesis interface, responsive to digital data representing the virtual dental implant body;
• wherein the step of forming the virtual occlusally-facing dental prosthesis component comprises defining virtual dimensions of an occlusally-facing surface to define a virtual transgingival cap model of a transgingival cap, the dimensions of the transgingival cap model being larger than the dimensions of the virtual prosthesis interface model, and
• wherein the method further comprises the step of forming a virtual crown component model modeling a crown component of the dental implant, to include forming a complementing virtual transgingival cap-receiving surface modeling a transgingival cap-receiving surface of the crown component shaped and positioned to receive occlusally-facing portions of the transgingival cap.

A method of manufacturing a dental prosthesis to replace a non-functional natural tooth positioned in a jawbone of a specific pre-identified patient, the method comprising the steps of:

• receiving and accessing 3D in-vivo imaging data describing an in-vivo dental anatomy of the specific pre-identified patient associated with the non-functional natural tooth prior to its removal from the jawbone of the specific pre-identified patient, the 3D in-vivo imaging data to include 3D in-vivo root imaging data of at least a portion of an in-vivo root of the non-functional natural tooth, and 3D in-vivo occlusal-facing imaging data of at least a portion of an in-vivo occlusal-facing portion of the non-functional natural tooth;
• forming a virtual 3D implant component design model at least partially responsive to the 3D in-vivo imaging data;
• and
• manufacturing an implant component at least partially responsive to the virtual 3D implant component design model, the implant component including an implant component root portion and an occlusal-facing implant component interface,
• the implant component root portion having a substantially custom-shaped root portion surface of spatial dimension correlating to a corresponding virtual surface of spatial dimension represented in the 3D in-vivo root imaging data, the occlusal-facing implant component interface having a substantially custom-shaped interface surface of spatial dimension correlating to a corresponding virtually reduced model of spatial dimension derived from the 3D in-vivo occlusal-facing imaging data;
• wherein the corresponding virtually reduced model of spatial dimension derived from a iso-crestal or supra-crestal surface of spatial dimension represented in the occlusal-facing image data comprising of one or more of the following:
• 3D in-vivo occlusal-facing tooth imaging data;
• 3D in-vivo bone imaging data;
• and 3D in-vivo gum tissue imaging data.

A method of manufacturing a dental implant, the dental implant having a root portion and an occlusally-facing implant interface to receive an occlusally-facing dental component, the method comprising the steps of:

• receiving and accessing first in-vivo imaging data representing a substantial spatial extension of an occlusally-facing anatomy of a pre-identified non-functional natural tooth prior to the natural tooth's removal from a jawbone of a specific patient;
• receiving and accessing second in-vivo imaging data representing a substantial spatial extension of a root anatomy of the pre-identified non-functional natural tooth prior to its removal from the jawbone of the specific patient;
• deriving a first virtual shape model of a substantially custom-shaped spatial extension of the occlusally-facing implant interface from the first in-vivo imaging data by reducing a virtual shape of the occlusally-facing anatomy of the pre-identified non-functional natural tooth, as represented in the first in-vivo imaging data, to form a reduced virtual shape;
• and
• deriving a second virtual shape model of a substantially custom-shaped spatial extension of the root portion from the second in-vivo imaging data so that the second virtual shape model correlates to a corresponding virtual shape of the root anatomy of the pre-identified non-functional natural tooth as represented in the second in-vivo imaging data;
• causing numerical control data to be derived from the first virtual shape model and the second virtual shape model;
• and
• causing a machining apparatus to be utilized to form the dental implant responsive to the numerical control data.