Photogrammetry Full Arch Digital Implant Workflow Training

Written by: Ryan Dunlop, CEO and Founder of Full Arch Masters and graduate from the Harvard School of Dental Medicine

Key Takeaways from the FAM Method Workflow

• The FAM Method is a seven-step digital workflow that integrates photogrammetry, intraoral scanning, CBCT, exocad design, immediate-load conversion, final zirconia design, and FP1-specific implementation to deliver a screwed-in, same-day full-arch prosthesis in 2–4 hours.
• Accurate preoperative records, precise photogrammetry capture, and verified dataset alignment are critical for passive fit and for avoiding common errors that cause fit failures at delivery.
• Each workflow step has explicit role ownership for the assistant, lab technician, treatment coordinator, and dentist so delegation gaps do not force the dentist to perform non-billable tasks.
• Full-team training, ongoing alumni community support, and access to the KOL buying group help practices maintain the digital workflow and avoid reverting to hybrid methods.
• Register for an upcoming Full Arch Masters course to bring your entire team and learn the FAM Method from the ground up at fullarchmasters.com.

Step 1: Preoperative Records and Data Acquisition

Accurate preoperative records create the foundation for reliable same-day delivery. The assistant and treatment coordinator own this step.

1. Capture full upper and lower jaw intraoral scans plus a bite registration before surgery to enable accurate provisional restoration design, as required by standard All-on-X digital protocols.
2. With the intraoral anatomy captured, record facial scan data to establish the patient's vertical dimension of occlusion using one of three reference methods: fiduciary markers placed pre-surgery, pre-retained teeth as reference points, or an existing well-adjusted denture as a template.
3. Once all scan data is collected, export all scan files in STL or PLY format and confirm file integrity before the surgical date.
4. Complete the preoperative package by collecting patient photos, treatment plan documentation, implant system and multi-unit abutment (MUA) selection, and patient financing records.

Common stitching errors: Incomplete arch coverage during the preoperative intraoral scan creates gaps that propagate into the post-surgical dataset alignment. The assistant verifies full coverage on-screen before the patient leaves the chair.

Delegation: The assistant captures scans and bite registration, and the treatment coordinator confirms that the documentation package is complete before surgery day.

Enroll in an upcoming Full Arch Masters course to train your assistant and treatment coordinator on records acquisition with live patients.

Step 2: Photogrammetry and Intraoral Scanning

With preoperative records secured, the next critical step occurs immediately after implant placement. This step captures implant positions with the precision required for passive fit. The lab technician and assistant share ownership.

1. Connect coded scan bodies to the MUAs immediately after implant placement. Coded scan bodies contain system-recognizable encoded points that allow the photogrammetry system to calculate precise 3D implant coordinates.
2. For iCam4D capture, the system uses four moving cameras plus a structured-light projector to photograph proprietary titanium ICamBodies screwed onto the MUAs.
3. Monitor the capture display. Uncaptured points appear in orange, and captured points appear in green. Proceed only when all points are confirmed green.
4. Switch to standard intraoral scanning mode to record surrounding soft tissue, occlusion, and adjacent anatomy. Clean blood and debris from post-surgical soft tissues before this scan, because residual contamination interferes with scan accuracy and complicates dataset alignment.
5. Align the coded scan body position data with the soft tissue data inside the scanner software to produce a unified 3D oral model. Verify alignment before proceeding to design and re-scan if necessary.

Dataset alignment errors: Misalignment between the photogrammetry dataset and the soft-tissue intraoral scan is the most common cause of fit failure at delivery. Verify alignment in software before exporting.

Delegation: The lab technician oversees photogrammetry capture and dataset alignment, and the assistant manages scan body seating and patient positioning.

Step 3: CBCT and Digital Treatment Planning

After photogrammetry and intraoral scans are complete, the dentist and lab technician merge imaging datasets to finalize the surgical and prosthetic plan.

1. Import CBCT DICOM files into the planning software and segment bone volume, nerve canals, and sinus anatomy.
2. Merge the CBCT volume with the photogrammetry dataset and the preoperative intraoral scan to create a unified planning environment. Accurate merging requires identifiable landmarks common to all three datasets, and fiduciary markers placed pre-surgery serve this function reliably.
3. Confirm implant positions, angulations, and MUA selections against the merged model. Flag any discrepancy between planned and actual implant positions for prosthetic compensation.
4. Export the finalized treatment plan and merged dataset to exocad for design.

Delegation: The dentist reviews and approves the merged plan, and the lab technician manages file imports, segmentation, and export.

Join a Full Arch Masters course to practice CBCT-photogrammetry merging on real case data under instructor supervision.

Step 4: exocad Design for Immediate and Final Restorations

The lab technician uses exocad to design both the immediate-load conversion prosthesis and the final restoration, keeping them aligned for predictable delivery.

1. Import the merged photogrammetry and soft-tissue dataset into exocad DentalCAD.
2. Design the immediate-load prosthesis using the preoperative records as the aesthetic reference. Confirm vertical dimension of occlusion, midline, and incisal edge position against the facial scan data.
3. Design the final zirconia restoration concurrently when workflow timing allows, using the immediate-load design as the template to maintain consistency between provisional and final.
4. Verify screw-access channel angulations against MUA positions before sending files to the printer.

Delegation: The lab technician owns all exocad design steps. The dentist reviews and approves the design before fabrication begins.

The following table illustrates how the FAM Method fully digital approach compares to traditional hybrid workflows across key accuracy and efficiency metrics.

Hybrid vs. Fully Digital Full-Arch Workflow Comparison

Metric	Hybrid Workflow	FAM Method (Fully Digital)	Source
Implant-position impression error	Variable depending on technique	Lower with photogrammetry	Comparative studies on implant impressions
Framework remake rate	Higher without photogrammetry verification	Reduced when photogrammetry verification is used	Studies on photogrammetry verification
Positional error vs. splinted open-tray	Baseline	Reduction with photogrammetry	Studies on photogrammetry in full-arch restorations
Same-day delivery timeline	Multi-day, patient sent home and recalled to swollen tissue	2–4 hours from records to screwed-in prosthesis	Full Arch Masters alumni outcomes

Step 5: Immediate-Load Conversion with 3D Printing

The lab technician and assistant fabricate and deliver the immediate-load prosthesis using 3D printing and a structured verification process.

1. Send the approved exocad immediate-load design file to the Envisiontec or DentaFab printer. The DentaFab Sega Pro is available through the Full Arch Masters store for practices building an in-house lab.
2. Confirm printer calibration before each print run. Uncalibrated printers are the leading cause of fit discrepancy at immediate-load delivery, so verify the calibration log and run a test print if the printer has not been used within the preceding 48 hours.
3. Post-process the printed prosthesis per the resin manufacturer's protocol: wash, cure, and inspect for layer delamination or support-artifact interference at the tissue surface.
4. Seat the immediate-load prosthesis intraorally, confirm passive fit at all screw access points, and torque to the MUA manufacturer's specification.
5. Verify occlusion and adjust as needed before the patient leaves the chair.

Printer calibration errors: Skipping calibration verification after resin changes or extended printer downtime is the most common cause of immediate-load remakes. Build calibration verification into the pre-surgery checklist.

Delegation: The lab technician manages printing and post-processing, and the assistant manages intraoral seating and torque verification under dentist supervision.

Train your lab technician at a Full Arch Masters course to master Envisiontec and DentaFab printing protocols with hands-on fabrication.

Step 6: Final Zirconia Design and Finishing Details

The lab technician designs, mills, and finishes the definitive zirconia restoration using the same dataset that supported the immediate-load prosthesis.

1. Use the approved exocad final design file, built from the same photogrammetry dataset as the immediate-load, to mill the zirconia framework. Consistency between provisional and final design minimizes occlusal adjustment at delivery.
2. Perform green-stage contouring before sintering to refine emergence profiles and interproximal contacts.
3. Apply MIYO ceramic layering after sintering to achieve individualized characterization, translucency gradients, and gingival color matching. MIYO layering often separates a functional zirconia arch from one that wins referrals.
4. Polish and inspect the finished restoration against the design file before delivery.

Delegation: The lab technician owns all zirconia design, milling, and finishing steps. The dentist reviews the finished restoration against the design approval before scheduling delivery.

Step 7: FP1 Design, Team Protocols, and Scaling Metrics

FP1 prosthetics require different decisions than FP2 and FP3, and this step also defines the systems that allow the full team to scale the workflow.

1. Identify FP1-eligible cases during treatment planning. FP1 is indicated where gingival architecture allows a restoration that replaces only teeth, not teeth and gingiva, which produces a more aesthetic outcome at higher margin.
2. Adjust the photogrammetry and exocad design protocol for FP1. The tissue emergence profile and screw-access channel geometry differ from FP2 and FP3 and require FP1-specific design parameters in exocad.
3. Assign role-specific delegation checkpoints across the full team. The assistant manages records and scan body seating, the lab technician manages design and fabrication, the treatment coordinator manages the patient timeline and financing, and the dentist reviews and approves at each clinical decision point.
4. Document the workflow as a written team protocol, including room setup checklist, delegation matrix, and case handoff sequence, so the system runs consistently regardless of which team member is present on a given day.
5. Track cases per month, chair time per arch, and remake rate as the three primary scaling metrics. Use these numbers to identify the bottleneck before adding case volume.

Delegation: The full team shares ownership of Step 7. Workflow scaling functions as a team accountability.

Team Training Requirements for Photogrammetry Workflows

Photogrammetry integration fails most often because of delegation gaps, not hardware limitations. Steps that belong to a trained team member drift back to the dentist when no one else has been trained to own them, and Full Arch Masters addresses this through a full-team training model: one team, one workflow.

The FAM Flagship Course is capped at eight dentists per cohort and is designed for the practice to attend as a unit, including dentist, lead assistant, treatment coordinator, and in-house lab technician, so the entire team aligns on the same workflow on day one. Team-member pricing is built into every course at $2,500 per additional team member for the Flagship.

The Treatment Coordinator Bootcamp is taught by FAM's in-house treatment coordinator, who maintains an 80% closing rate on full-arch consultations. The bootcamp covers new patient acquisition, pipeline nurture, patient financing, and the specific objections that arise in high-ticket full-arch consultations.

Every attendee, regardless of role, joins FAM's continued alumni community via private group chats with hundreds of FAM-trained dentists, lab technicians, and team members. Alumni also gain access to the KOL (Key Opinion Leader) buying group, which provides vendor discounts on Neodent implants, exocad licenses, Envisiontec and DentaFab printers, and photogrammetry systems at no recurring cost. FAM is a certified exocad reseller for DentalCAD, exoplan, and ChairsideCAD.

Full Arch Masters courses are accredited through AGD PACE, with 32 continuing education credits available per main course and 90+ CE hours across the full Fellowship program.

Alumni report adding $1M+ per year in practice revenue after adopting the FAM Method, driven by running more arches per week at higher margin, closing more consultations, and delegating non-billable steps off the dentist's chair time.

Bring your full team to a Full Arch Masters course to align on one workflow from day one.

Hardware and Accuracy Benchmarks (2026)

Clinical thresholds for passive fit in full-arch implant prosthetics appear throughout the literature, and the following benchmarks reflect data for systems used in photogrammetry full-arch workflows.

iCam4D (Imetric / Neodent): The iCam4D uses four moving cameras plus a structured-light projector to capture overlapping 2D images of proprietary titanium ICamBodies screwed onto MUAs. It does not rely on stitching algorithms, so results remain independent of operator scanning skill once markers are correctly placed.

PIC System (PIC Dental): The PIC system has been evaluated in complete-arch implant impression studies and ranks among the techniques that can meet clinical thresholds for accuracy. Precision with the PIC system was not affected by increasing interimplant distance in the way that some other techniques were.

Shining 3D Aoralscan Elite with IPG: The Aoralscan Elite with intraoral photogrammetry (IPG) combines intraoral scanning and intraoral photogrammetry in a single device, which eliminates the need for a separate extraoral photogrammetry capture step.

Meta-analytic context: Systematic reviews have found that photogrammetry systems can demonstrate better trueness and precision than intraoral scanners for complete-arch implant impressions.

The FAM Method incorporates photogrammetry to help achieve accuracy that supports passive fit when scan body seating and dataset alignment protocols are followed correctly.

Top Five Pitfalls That Cause Digital Workflows to Revert to Hybrid

Practices that adopt photogrammetry but revert to hybrid workflows within six months almost always trace the failure to one of five operational breakdowns.

1. Scan body seating errors. A scan body that is not fully seated on the MUA introduces a positional error that propagates through every downstream step. The assistant verifies tactile and visual seating confirmation before photogrammetry capture begins, and a written seating checklist helps eliminate this error.
2. Dataset alignment failures. Misalignment between the photogrammetry dataset and the soft-tissue intraoral scan is the most common cause of fit failure at immediate-load delivery. Blood or debris on post-surgical soft tissues, identified as a primary source of scan interference in Shining 3D's All-on-X application guide, must be cleared before the soft-tissue scan. Teams verify alignment in software before exporting to design.
3. Printer calibration drift. Resin changes, extended downtime, and ambient temperature variation all cause printer calibration to drift. Practices that skip pre-print calibration verification produce immediate-load prostheses that do not fit, which generates remakes, increases chair time, and erodes confidence in the digital workflow.
4. Delegation gaps. When the dentist performs steps that belong to a trained assistant or lab technician because those team members were not trained, chair time per arch increases and case volume stalls. As this pattern continues, the workflow becomes unsustainable. The FAM Method is built around explicit role ownership at every step, and training the full team, not just the dentist, functions as the operational prerequisite for scaling.
5. Post-course isolation. Dentists who attend training without a peer community to consult when a difficult case lands on the schedule often revert to familiar analog methods under pressure. Access to a continued alumni community, where hundreds of FAM-trained practitioners answer case questions in real time, provides the structural support that prevents regression.

Build the team systems and community support at a Full Arch Masters course to prevent reversion to hybrid workflows.

Frequently Asked Questions

How many CE credits do Full Arch Masters courses provide, and are they AGD PACE approved?

Full Arch Masters is an AGD PACE-approved continuing education provider. Each main course, including the Flagship Course, provides 32 CE credits. The full Fellowship program, which bundles three core courses plus a fourth elective, delivers 90+ CE hours across the complete curriculum. AGD PACE approval means the credits are recognized by the American Academy of General Dentistry and accepted by most state dental boards for license renewal.

What does team pricing look like, and should the whole practice attend together?

Team-member pricing is built into every Full Arch Masters course. For the Flagship Course, the dentist's tuition is $9,995, and each additional team member, including assistant, treatment coordinator, or in-house lab technician, attends for $2,500. The FAM Method is designed for full-team execution, and most alumni who successfully operationalize the workflow attended as a team. A dentist who returns from training without a trained team cannot delegate the non-billable steps that make the same-day timeline possible. Bringing the full team on day one remains the single most reliable predictor of workflow adoption back at the practice.

What is the KOL buying group, and how does it differ from a GPO?

The KOL (Key Opinion Leader) buying group is a vendor-discount network available to every Full Arch Masters alumnus at no recurring cost. It provides preferred pricing on Neodent implants, exocad licenses, Envisiontec and DentaFab 3D printers, photogrammetry systems, and other equipment used in the FAM Method. Group Purchasing Organizations and DSO-affiliated purchasing programs typically require ongoing membership fees or organizational affiliation to access equivalent discounts. The KOL buying group requires only that an alumnus completed a course, so they attend once and keep the discounts.

Is the $1M+ annual revenue outcome realistic for a practice adopting the FAM Method?

The revenue outcome mentioned earlier is a reported alumni result, not a projected industry average. A fully digital workflow that delivers a screwed-in prosthesis in 2–4 hours allows a practice to run significantly more arches per week than a hybrid workflow permits. The Treatment Coordinator Bootcamp, taught by the same treatment coordinator mentioned earlier, increases the percentage of consultations that convert to scheduled cases. The full-team delegation model removes non-billable steps from the dentist's chair time, allowing the dentist to focus on billable clinical work. Practices that adopt all three components, including the digital workflow, the closing system, and the delegation model, most consistently report this outcome.

What post-course support does Full Arch Masters provide after training ends?

Every Full Arch Masters alumnus joins a continued community of hundreds of FAM-trained dentists, lab technicians, and team members through private group chats. The alumni network includes a dentist-only chat for sensitive practice and personnel questions, a main multi-role chat spanning assistants, technicians, and team members for clinical and operational case help, and per-course lab and treatment coordinator chats. Alumni also receive a complete digital resource library covering surgical room setup checklists, equipment shopping lists, finishing techniques, treatment coordinator forms and presentations, and consent templates. KOL buying group access continues at no recurring cost for the life of the alumni relationship. Post-course isolation, having no peer community to consult when a difficult case arrives, is one of the five primary reasons practices revert to hybrid workflows, and the alumni community provides the structural solution to that problem.

How does the FAM Method differ from a standard digital workflow that already uses an intraoral scanner?

Most practices that describe their workflow as digital are running a hybrid that combines partial intraoral scanning, off-site lab work, multi-day appointments, and patients recalled to swollen tissue. The FAM Method functions as an end-to-end integrated system that includes intraoral scanning, photogrammetry, CBCT, exocad design, immediate-load 3D-printed conversion, and same-day final delivery, all taught as a single repeatable workflow with explicit role ownership at every step. The photogrammetry component serves as the critical differentiator, and research has shown that photogrammetry systems can offer better trueness and precision than intraoral scanners alone for complete-arch implant impressions. Knowing how to use a scanner differs from having a seven-step system that integrates scanning, photogrammetry, design, printing, and delivery into a workflow a trained team can run consistently.