OHI-S Digital Occlusion with Zebris Facebow

From Static Records to Dynamic 4D Dentistry

3 Lessons | 3 Hours 26 Minutes | 3.25 CE Credits

Move beyond conventional static occlusal records and learn how to integrate real mandibular movement into modern digital prosthodontic workflows with OHI-S Digital Occlusion with Zebris Facebow: From Static Records to Dynamic 4D Dentistry.

This advanced digital dentistry course brings together three complementary technologies and concepts:

• Zebris Jaw Motion Analyzer
• Digital Facebow
• Dynamic 4D Virtual Patient

Presented by:

• Zardasht Najmadine
• Luca Lepidi
• Francesco Grande

the program demonstrates how clinicians can capture patient-specific mandibular dynamics and transfer them into:

• Digital diagnosis
• Prosthodontic treatment planning
• CAD/CAM workflows
• exocad
• Fixed prosthodontic design
• Full-mouth rehabilitation
• Occlusal splint therapy
• Analog articulator workflows

The central clinical progression is:

Record Real Function → Digitize Mandibular Motion → Build a 4D Patient → Transfer Functional Data → Design Restorations Around Patient-Specific Occlusion

Course Details

• Course: Digital Occlusion with Zebris Facebow: From Static Records to Dynamic 4D Dentistry
• Provider: OHI-S
• Faculty: Zardasht Najmadine, Luca Lepidi, Francesco Grande
• Lessons: 3
• Official Duration: 3 Hours 26 Minutes
• Language: English
• Official OHI-S CE: 3.25 CE Credits
• Primary Specialty: Prosthodontics / Digital Dentistry
• Additional Focus: Functional Dentistry
• Technology: Zebris Jaw Motion Analyzer
• Workflow: Digital Facebow + Jaw Tracking + 4D Patient
• Digital Integration: CAD/CAM + exocad
• Clinical Applications: Crowns, Fixed Prosthodontics, Full-Mouth Rehabilitation & Splints

Course Overview

Traditional dentistry often records occlusion as a series of static positions.

These may include:

• Digital impressions
• Intraoral scans
• Bite registrations
• Static models
• Conventional facebow records

However, the mandible functions dynamically.

During real function, the lower jaw performs:

• Opening
• Closing
• Protrusion
• Retrusion
• Lateral excursions
• Functional chewing movements

A static digital model cannot fully reproduce this movement by itself.

This course introduces a workflow designed to add a fourth dimension:

Movement Over Time

creating what the course describes as a:

4D Virtual Patient

From Static Dentistry to Dynamic 4D Dentistry

Conventional digital dentistry may create highly accurate 3-D representations of:

• Teeth
• Gingiva
• Dental arches
• Restorations

but these models remain static unless functional data are incorporated.

Digital jaw tracking adds information about how the patient’s mandible actually moves.

The progression becomes:

3-D Anatomy + Functional Motion = Dynamic 4D Patient

Why Dynamic Occlusion Matters

A restoration should not only fit anatomically.

It must also function within:

• Maximum intercuspation
• Excursive movements
• Functional mandibular trajectories
• Patient-specific occlusion

Failure to account for function may contribute to increased chairside adjustment.

The course therefore focuses on using recorded mandibular data to support more function-oriented restorative design.

Zebris Jaw Motion Analyzer

The Zebris Jaw Motion Analyzer – JMA is the principal functional recording technology featured in the course.

It enables clinicians to record mandibular movement and analyze patient-specific functional information.

The course demonstrates how Zebris data can move from:

Measurement

to:

Clinical Diagnosis

and ultimately to:

Digital Restorative Design

Mandibular Motion Recording

The program explores digital acquisition of mandibular movements.

These recordings may help evaluate:

• Mandibular trajectories
• Functional movement patterns
• Occlusal relationships
• Excursive movement
• Interferences

The objective is to capture information that cannot be represented completely by a static bite record alone.

Digital Facebow

The Zebris Digital Facebow is used within the prosthodontic workflow to transfer patient-specific relationships into a digital environment.

The course addresses:

• Clinical data acquisition
• Maxillomandibular relationships
• Functional orientation
• Digital transfer
• Prosthodontic planning

Digital Facebow vs. Static Records

Traditional records can provide valuable positional information.

Digital functional records add another layer:

Where the Jaw Is + How the Jaw Moves

This additional functional information can then be incorporated into restorative planning.

Creating the 4D Virtual Patient

One of the most important course objectives is creation of a 4D virtual patient.

The concept integrates:

• Digital dental models
• Occlusal relationships
• Jaw position
• Mandibular motion
• Functional data

into a dynamic virtual simulation.

Clinical Value of a 4D Patient

A 4D workflow can help clinicians visualize how proposed restorations interact with patient-specific mandibular movement.

Potential applications within the course include:

• Prosthodontic diagnosis
• Treatment planning
• Full-mouth rehabilitation
• Occlusal splints
• Fixed restorations

LESSON 1

From Diagnosis to Design: Integrating the Jaw Motion Analyzer in Functional Occlusion

Instructor: Zardasht Najmadine
Duration: 1 Hour 10 Minutes
Official CE: 1 Credit

The first lesson establishes the clinical rationale for digital jaw-motion analysis.

Topics include:

• Limitations of traditional occlusal analysis
• Advantages of digital jaw-motion assessment
• Recording mandibular movements
• Occlusal contact analysis
• Mediotrusion interferences
• Mandibular trajectories
• Digital impression validation
• Intraoral scanning validation
• Crown design
• Fixed prosthodontics
• Occlusal splints
• Function-driven prosthetic appliances

Limitations of Traditional Occlusal Analysis

Traditional methods provide useful information but may not reproduce every aspect of dynamic mandibular function.

The course contrasts static assessment with patient-specific motion recording.

The shift is:

Static Relationship → Dynamic Functional Analysis

Occlusal Contact Analysis

The lesson explores how recorded motion can help clinicians better understand the interaction between opposing dental arches during function.

Analysis may include:

• Contact timing
• Excursive contacts
• Functional trajectories
• Interferences

Mediotrusion Interferences

The curriculum specifically includes analysis of mediotrusion interferences.

Identifying potentially problematic functional contacts can be relevant when planning:

• Crowns
• Bridges
• Full-mouth restorations
• Occlusal appliances

Mandibular Trajectories

Rather than estimating movement based only on averages, digital jaw tracking provides patient-specific trajectory information.

This supports the broader concept of:

Individualized Functional Dentistry

Digital Impression Validation

A particularly useful topic in Lesson 1 is using the Jaw Motion Analyzer to help validate digital workflows involving:

• Digital impressions
• Intraoral scanning
• Occlusal relationships

The objective is not simply to produce an accurate scan but to determine whether the resulting digital relationship is compatible with actual function.

From Diagnosis to Restorative Design

The course demonstrates how functional data can progress through:

JMA Recording → Analysis → Digital Planning → Restoration Design

This connects diagnostic information directly with prosthodontic design.

Crowns & Fixed Prosthodontics

Jaw-motion data can be incorporated into planning for:

• Single crowns
• Multiple-unit restorations
• Fixed prostheses

The goal is to create restorations that are designed with patient-specific function in mind.

Occlusal Bite Splints

Lesson 1 also addresses use of JMA data in the fabrication of:

• Occlusal splints
• Function-driven appliances

Rather than designing an appliance based only on static models, functional information can contribute to a more individualized workflow.

LESSON 2

Occlusal Considerations in Prosthodontics: Integrating Zebris Digital Facebow Workflows

Instructor: Luca Lepidi
Duration: 45 Minutes
Official CE: 0.75 Credits

Lesson 2 focuses specifically on incorporating the Zebris Digital Facebow into prosthodontic treatment.

Topics include:

• Digital clinical data collection
• Prosthodontic treatment planning
• Maxillomandibular relationship recording
• Digital facebow transfer
• 4D virtual patient creation
• CAD/CAM integration
• Fixed prosthodontics
• Function-driven workflows
• Digital occlusal analysis

Clinical Data Collection

A function-driven prosthodontic workflow begins with accurate patient data.

Potential records include:

• Intraoral scans
• Occlusal records
• Jaw relation data
• Digital facebow data
• Functional mandibular movement

These datasets can then be integrated for treatment planning.

Maxillomandibular Relationships

The relationship between the maxilla and mandible is central to prosthodontics.

The course explains digital protocols for:

Recording → Transferring → Digitizing

these relationships using Zebris technology.

Prosthodontic Treatment Planning

Functional information can become particularly important when restorative treatment becomes more extensive.

Examples include:

• Multiple restorations
• Altered occlusion
• Full-mouth rehabilitation
• Complex prosthodontics

CAD/CAM Integration

One of the major objectives of the course is incorporating digital facebow and jaw-motion records into CAD/CAM workflows.

The aim is to connect:

Clinical Functional Data → Digital Design Environment

rather than allowing the clinical and laboratory workflows to remain disconnected.

Function-Driven Fixed Prosthodontics

Fixed restorations must satisfy:

• Esthetics
• Fit
• Strength
• Occlusion
• Function

The course emphasizes the functional component through patient-specific digital data.

Reducing Chairside Occlusal Adjustment

One of the proposed practical advantages of function-driven digital planning is reduction of unnecessary adjustment after restoration delivery.

The desired workflow is:

Better Functional Records → Better Digital Design → Fewer Unexpected Occlusal Corrections

This should be understood as a workflow objective rather than a guarantee for every case.

LESSON 3

Jaw Tracking in Digital Prosthodontics: From Static Models to 4D Patients

Instructor: Francesco Grande
Duration: 1 Hour 30 Minutes
Official CE: 1.5 Credits

The third lesson provides the most complete Zebris jaw-tracking workflow.

Topics include:

• Digital jaw-tracking technologies
• Dynamic 4D patient simulation
• Complete Zebris clinical protocol
• Mandibular motion recording
• Functional analysis
• exocad transfer
• Analog articulator transfer
• Full-mouth rehabilitation
• Advanced occlusal treatment planning
• Occlusal splints
• Personalized appliances
• Common Zebris errors
• Workflow troubleshooting

Jaw Tracking

Digital jaw tracking transforms the virtual dental model from a static representation into a functional simulation.

The key addition is:

Patient-Specific Mandibular Movement

Complete Zebris Clinical Protocol

The lesson takes clinicians through a structured workflow for:

• Recording
• Analyzing
• Transferring
• Applying

mandibular motion data.

Transfer to exocad

The course specifically covers transfer of Zebris functional data into exocad.

This is an important SEO and clinical term because it connects jaw tracking directly to one of the most widely used dental CAD environments.

The workflow becomes:

Patient → Zebris → Functional Dataset → exocad → Prosthetic Design

exocad & Dynamic Occlusion

Digital design can incorporate more than dental morphology.

With functional information, clinicians and technicians can evaluate restoration design within a patient-specific motion environment.

Applications may include:

• Crowns
• Bridges
• Full-mouth rehabilitation
• Occlusal appliances

Transfer to Analog Articulators

Despite the digital emphasis of the course, Lesson 3 also discusses transfer to analog articulators.

This creates a hybrid workflow in which digital functional data can support:

• Digital planning
• Conventional laboratory procedures
• Mixed analog-digital workflows

Full-Mouth Rehabilitation

Complex full-mouth cases are one of the strongest applications presented in the course.

These treatments may involve major changes to:

• Occlusion
• Tooth morphology
• Prosthetic relationships
• Functional guidance

Patient-specific functional data can therefore become particularly useful during treatment planning.

Full-Mouth Digital Workflow

A functional digital rehabilitation workflow may follow:

Scan → Record Jaw Motion → Create 4D Patient → Design → Simulate → Manufacture → Verify Clinically

Occlusal Splint Therapy

Lesson 3 addresses Zebris workflows in:

• Occlusal splint therapy
• Personalized occlusal appliance fabrication

Functional data may help customize appliances according to patient-specific mandibular dynamics.

Personalized Occlusal Appliances

A digital appliance can be designed around:

• Patient anatomy
• Occlusal relationship
• Mandibular movement

rather than generic articulator values alone.

Common Zebris Errors

A particularly valuable part of the course is discussion of mistakes in Zebris workflows.

Digital technology does not automatically produce accurate results.

Errors can occur during:

• Recording
• Device positioning
• Data acquisition
• Data transfer
• Interpretation
• Integration

Reliable Digital Functional Records

High-quality output requires:

Correct Clinical Protocol + Accurate Recording + Correct Transfer + Appropriate Interpretation

The technology is only as reliable as the workflow used to generate the data.

STATIC vs. DYNAMIC DIGITAL DENTISTRY

Static Digital Workflow

May include:

• Intraoral scan
• Static bite
• Virtual model
• CAD design

Dynamic 4D Workflow

Adds:

• Jaw tracking
• Functional trajectories
• Patient-specific movement
• Digital facebow information

The major conceptual difference is:

Static Anatomy vs. Anatomy in Motion

Digital Occlusion

Digital occlusion can incorporate information beyond visually examining contacts on static digital casts.

This course connects occlusion with:

• Motion
• Function
• Prosthetic design
• Digital simulation

Functional Dentistry

OHI-S also categorizes this course within Functional Dentistry.

This is appropriate because the primary objective is not simply scanning or CAD design.

It focuses on the functional relationship among:

• Mandible
• Teeth
• Occlusion
• Prosthetic restorations

Digital Prosthodontics

The course is particularly strong for modern prosthodontics because it integrates:

• Digital records
• Jaw relations
• Motion
• CAD/CAM
• exocad
• Restorative design

into one workflow.

Prosthetically Driven Functional Planning

The final restoration should satisfy both:

Morphology

and:

Function

Digital functional data can help clinicians and technicians plan both simultaneously.

Crowns & Fixed Prosthodontics

The course specifically demonstrates applications of JMA information to design:

• Crowns
• Fixed restorations

with patient-specific functional considerations.

Full-Mouth Rehabilitation

For complex rehabilitation, small occlusal inaccuracies across multiple restorations may become clinically significant.

Digital functional planning aims to improve the relationship between:

• Restoration design
• Jaw movement
• Functional contacts

before definitive delivery.

Occlusal Stability

The stated objective of the OHI-S program includes supporting long-term functional stability.

Stable outcomes still depend on multiple factors including:

• Diagnosis
• Tooth condition
• Periodontal health
• Prosthetic design
• Material selection
• Parafunction
• Clinical execution

Dynamic digital records represent one component of this larger process.

Digital Dentistry + Dental Laboratory

One important strength of a Zebris/exocad workflow is the ability to communicate functional information to the laboratory.

Rather than sending only:

• Scans
• Photographs
• Bite records

the clinician can potentially transfer additional patient-specific functional data.

Clinician-Technician Communication

A modern workflow can become:

Patient Data → Functional Records → Laboratory CAD Environment → Prosthetic Design

This is highly relevant to both clinicians and dental technicians.

Key Topics Covered

• Digital Occlusion
• Zebris
• Zebris Jaw Motion Analyzer
• JMA
• Zebris Digital Facebow
• Digital Facebow
• Jaw Tracking
• Mandibular Motion Analysis
• Mandibular Trajectories
• Occlusal Analysis
• Mediotrusion Interferences
• 4D Dentistry
• 4D Virtual Patient
• Digital Prosthodontics
• Functional Dentistry
• CAD/CAM Dentistry
• exocad
• Digital Articulator
• Analog Articulator
• Fixed Prosthodontics
• Crowns
• Full-Mouth Rehabilitation
• Occlusal Splints
• Bite Splints
• Intraoral Scanning
• Digital Impressions
• Maxillomandibular Relationships
• Function-Driven Dentistry

Who Should Take This Course?

This program is particularly relevant for:

• Prosthodontists
• Restorative Dentists
• General Dentists
• Digital Dentistry Clinicians
• Dental Technicians
• Dental CAD/CAM Professionals
• Clinicians performing full-mouth rehabilitation
• Dentists using exocad
• Dentists using Zebris
• Clinicians interested in digital occlusion
• Orthodontists interested in functional jaw records

The strongest primary audience is:

Prosthodontists + Restorative Dentists

because the curriculum is predominantly focused on restorative and prosthodontic application of jaw-motion data.

Is This an Orthodontics Course?

Orthodontists may benefit from digital functional analysis and mandibular tracking.

However, this specific OHI-S course is centered predominantly on:

• Prosthodontic workflows
• Crowns
• Fixed restorations
• Full-mouth rehabilitation
• Splints
• CAD/CAM
• exocad

Therefore, it should not be marketed primarily as an orthodontic course.

Why This Course Is Useful

The strongest feature of Digital Occlusion with Zebris Facebow is that it links technologies that are often taught separately.

Clinical Diagnosis

• Occlusion
• Jaw movement
• Functional relationships

Digital Acquisition

• Intraoral scans
• Zebris JMA
• Digital facebow

Virtual Integration

• 4D patient
• Dynamic simulation

CAD/CAM

• exocad
• Restorative design

Clinical Application

• Crowns
• Fixed prosthodontics
• Full-mouth rehabilitation
• Splints

The overall workflow can be summarized as:

Capture → Analyze → Digitize → Simulate → Design → Restore

Original OHI-S CE Information

The official OHI-S course is listed for:

3.25 CE Credits

with the individual lessons listed as:

• Lesson 1: 1 CE Credit
• Lesson 2: 0.75 CE Credits
• Lesson 3: 1.5 CE Credits

Total:

3.25 CE Credits

These credits relate to participation through the official OHI-S educational activity and fulfillment of its applicable CE requirements.

An independently distributed recording should not automatically be advertised as providing OHI-S CE credit unless official CE eligibility is included.

Product Summary

• Product: Digital Occlusion with Zebris Facebow: From Static Records to Dynamic 4D Dentistry
• Provider: OHI-S
• Faculty: Zardasht Najmadine, Luca Lepidi, Francesco Grande
• Lessons: 3
• Duration: 3 Hours 26 Minutes
• Language: English
• Official OHI-S CE: 3.25 Credits
• Primary Specialty: Prosthodontics / Digital Dentistry
• Technology: Zebris Jaw Motion Analyzer + Digital Facebow
• Software Integration: exocad / CAD-CAM
• Applications: Fixed Prosthodontics, Full-Mouth Rehabilitation & Splints

4. Short Description

OHI-S Digital Occlusion with Zebris Facebow: From Static Records to Dynamic 4D Dentistry is a 3-lesson, 3h 26min course by Zardasht Najmadine, Luca Lepidi, and Francesco Grande.

The program demonstrates how to integrate the Zebris Jaw Motion Analyzer and Digital Facebow into modern prosthodontics, covering mandibular motion recording, occlusal contacts, mediotrusion interferences, maxillomandibular relationships, 4D virtual patient creation, CAD/CAM and exocad transfer, crowns, fixed prosthodontics, full-mouth rehabilitation, analog articulator transfer, occlusal splints, and common Zebris workflow errors.

Topics

Lesson 1. From Diagnosis to Design: Integrating the Jaw Motion Analyzer in Functional Occlusion

• Limitations of traditional occlusal analysis and the advantages of digital jaw motion assessment

• Recording mandibular movements and analyzing occlusal contacts, mediotrusion interferences, and mandibular trajectories

• Using the Jaw Motion Analyzer to validate the accuracy of digital impressions and intraoral scanning workflows

• Integrating JMA recordings into the design of crowns and fixed prosthodontic restorations

• Applying JMA data in the fabrication of occlusal bite splints and function-driven prosthetic appliances

• Bridging digital diagnosis and restorative design to achieve predictable functional and prosthetic outcomes

Lesson 2. Occlusal Considerations in Prosthodontics: Integrating Zebris Digital Facebow Workflows

• Collecting clinical data using digital protocols for prosthodontic treatment planning

• Recording and transferring maxillomandibular relationships with the Zebris Digital Facebow

• Creating a 4D virtual patient through the acquisition and digitalization of functional clinical data

• Integrating digital facebow records into prosthetic rehabilitation planning and CAD/CAM workflows

• Managing occlusion in fixed prosthodontics using function-driven digital workflows

• Improving the accuracy, predictability, and clinical outcomes of prosthetic rehabilitation through digital occlusal analysis

Lesson 3. Jaw Tracking in Digital Prosthodontics: From Static Models to 4D Patients

• Digital jaw tracking technologies and their role in transforming static virtual models into dynamic 4D patient simulations

• Complete clinical protocol with Zebris for accurate mandibular motion recording and functional analysis

• Transfer of Zebris data into exocad and analog articulators for function-oriented prosthetic design

• Clinical applications of Zebris in full-mouth rehabilitation and advanced occlusal treatment planning

• Zebris workflows in splint therapy and personalized occlusal appliance fabrication

• Common errors in Zebris protocols and strategies for achieving reliable clinical results

• Function-driven digital prosthodontics: improving workflow efficiency, reducing occlusal adjustments, and enhancing restoration accuracy