How To Bring Full Arch Design In House: The FAM Method

Written by: Ryan Dunlop, CEO and Founder of Full Arch Masters and graduate from the Harvard School of Dental Medicine | Last updated: July 15, 2026

Key Outcomes From the FAM Full-Arch Workflow

• Most U.S. dental practices still rely on hybrid full-arch workflows that use physical impressions, off-site labs, and multi-day appointments, which limits volume and erodes margins.
• Bringing full-arch prosthetic design in-house enables same-day delivery in two to four hours, supports five or more arches per week, and can add over $1M in annual revenue.
• The FAM Method is a seven-step digital workflow that connects pre-op records, photogrammetry, exocad design, immediate-load printing, verification, team handoff, and final delivery.
• Success depends on accurate photogrammetry for passive fit, standardized team delegation with written SOPs, and rigorous verification that reduces remakes and fit errors.
• Ready to implement the full 7-step FAM Method in your practice? Join the next Full Arch Masters cohort and learn the workflow from the team that runs it every day.

Who This Full-Arch Workflow Guide Is For

This guide speaks to dentists, lab technicians, treatment coordinators, and full dental teams at U.S. practices already using basic digital tools such as intraoral scanners and CBCT imaging who want to stop outsourcing full-arch design. The content assumes familiarity with the following terms.

• Photogrammetry: A camera-based system that mathematically triangulates the spatial positions of implant-level scan bodies to sub-5-micron accuracy, replacing conventional impressions for full-arch cases. Systems such as the Imetric ICam4D are purpose-built for this application.
• Immediate load: Delivery of a screw-retained provisional prosthesis on the day of implant surgery, before osseointegration is complete.
• FP1 / FP2 / FP3: The Misch prosthetic classification for fixed implant-supported restorations. FP1 replaces only the crown. FP2 replaces the crown and part of the root. FP3 replaces the crown, root, and some gingival tissue. Each classification carries different design, material, and surgical requirements.
• In-house vs. outsourced models: In-house design means the practice or its attached lab performs CAD design and fabrication internally. Outsourced models send scan files or physical records to an external commercial lab, which introduces turnaround delays and markup costs.

From a U.S. regulatory standpoint, individual state dental practice acts govern the scope of in-house lab work. Dentists performing design and fabrication within their own practice should confirm that their state board permits the intended activities. The Live Surgical component of the FAM curriculum is hosted in Parker, CO, where the Colorado Dental Board authorizes credentialed U.S.-licensed dentists to perform surgery on volunteer patients, a legal framework that does not exist in most states.

The 7-Step FAM Method for Bringing Full Arch Design In House

The FAM Method integrates seven sequential steps into a single repeatable workflow that takes a patient from no teeth or heavily failing dentition to a screwed-in same-day restoration in two to four hours.

1. Capture pre-op records (CBCT, intraoral scan, facial scan, digital smile design)
2. Perform photogrammetry capture (implant-level position data to sub-5-micron accuracy)
3. Execute exocad design workflow (merge datasets, design immediate-load and final prosthesis)
4. Print immediate-load prosthesis (3D-printed resin conversion for same-day delivery)
5. Finish and verify (passive-fit confirmation, occlusal check, screw resistance test)
6. Complete team handoff (delegation from clinical to lab to front office)
7. Deliver final restoration (zirconia or hybrid final prosthesis, screw-retained delivery)

Step 1: Capture Pre-Op Records for Full-Arch Planning

Accurate records anchor every downstream step. A full pre-op record set for an in-house full-arch case includes CBCT imaging, intraoral scanning, facial scanning, and a digital smile design derived from standardized photographs.

CBCT imaging provides bone volume, density, and the location of vital structures such as the inferior alveolar nerve, mental foramina, and sinus floor. To integrate this 3D bone data with the intraoral scan, CBCT data must be merged with intraoral scan files using radiopaque fiducial markers, because edentulous arches lack the stable anatomical landmarks that make registration straightforward in single-tooth cases.

Facial scanning and standardized 2D photographs, including chin-to-forehead full smile and retracted views taken from the same perspective, feed the digital smile design. Facial data enables quick determination of the occlusal plane, incisal edge horizontal plane, midline, and tooth shape before any prosthetic design begins in exocad.

Occlusion must be confirmed and fixed before the bite scan. Because there are no teeth in the opposing arch in a fully edentulous case, putty consistent with the patient’s vertical dimension of occlusion (VDO) is used to determine the space available for the future restoration. With these pre-op records complete, the team can move to precise implant position capture for passive fit.

Step 2: Perform Photogrammetry Capture for Passive Fit

Intraoral scanners alone do not provide sufficient accuracy for full-arch implant position capture. Inaccuracies in full-arch implant rehabilitation behave as a cascading snowball effect, where minor deviations introduced early establish an irreversible baseline that magnifies during digital processing and manufacturing. Photogrammetry controls this risk at the source.

ICam photogrammetry captures implant positions with under 5-micron accuracy, keeping total error stack below 100–150 microns for a true passive fit in full-arch restorations. The capture sequence follows three steps.

1. Connect scan bodies: Attach individually calibrated, radiopaque titanium ICamBodies to each implant and verify seating radiographically.
2. Capture: Position the four-camera ICam system and move in an orbiting motion, capturing multiple implant-position data points from varying angles through true mathematical triangulation.
3. Merge: Send the ICam file to the designer to align photogrammetry data with the intraoral soft-tissue scan in exocad. Tissue data is used for soft-tissue reference only, and implant positions remain fixed from the photogrammetry file to avoid fit errors.

A systematic review and meta-analysis found that stereophotogrammetry demonstrated higher precision than intraoral scanning for complete-arch implant impressions. Passive fit is non-negotiable in full-arch cases, because if a structure does not fit passively but is screwed down onto implants, the implants receive the tension of that malfitting structure, which over time can cause implant failure.

Step 3: Execute Exocad Design Workflow for Immediate and Final Prostheses

With merged datasets in hand, including the photogrammetry file, intraoral soft-tissue scan, CBCT, and facial data, the in-house designer opens exocad DentalCAD and begins prosthetic design. The design sequence follows a prosthetically driven logic, where the ideal tooth position and emergence profile are established first, and implant support is confirmed against that prosthetic blueprint.

Virtual articulators integrated in exocad transfer vertical dimension, centric relation, guidance, and esthetics from an existing or interim removable prosthesis to the definitive implant restoration. For immediate-load cases, the provisional prosthesis is designed with a scalloped emergence profile that guides soft-tissue healing toward the planned gingival contour of the final restoration.

Component library selection functions as a critical control point. Common causes of implant framework misfit in digital workflows include scanbody seating errors and CAD/CAM library mismatches with the physical component. Confirming that the exocad library version matches the physical components on the bench before finalizing the design file prevents the most common source of remakes.

Once the digital design is complete and the library match is verified, the next quality control checkpoint is physical. Restorations are tried on printed physical models to verify fit for both arches before patient delivery, and any needed adjustments are made at this stage, before the patient is in the chair.

Step 4: Print Immediate-Load Prosthesis in House

The approved immediate-load design is sent to the in-house 3D printer. 3D printers can produce denture bases in less than 10 minutes each or 40–50 minutes for two bases, which supports same-day full arches and makes in-house adoption realistic in high-volume settings.

Printing full-arch models carries a low material cost, so in-house printing often becomes one of the highest-return first investments for practices moving away from outsourced workflows. Many practices and labs recover the cost of their initial 3D printer through reduced outsourcing and labor savings.

The printed provisional is fabricated in biocompatible resin, finished chairside, and delivered screw-retained on the day of surgery. It functions as both the immediate functional restoration and the prototype that validates esthetics, phonetics, occlusion, and vertical dimension before the final prosthesis is milled.

Step 5: Finish and Verify Every Full-Arch Case

Verification protects the case from expensive remakes. A proactive error control framework for full-arch digital workflows integrates strict upstream standardization of scanning strategies with mandatory physical verification prior to final manufacturing.

The verification sequence for an in-house workflow includes the following checkpoints.

• Screw resistance test: Confirms passive fit intraorally. Rutkunas et al. applied the screw resistance test to quantify clinical passivity by recording degrees of rotation required to torque screws from initial seating at 5 Ncm to final tension at 35 Ncm.
• Periapical radiographs: Confirm seating at each implant interface before final torque.
• Model overlay check: Printed models with non-rotational analogs are verified by rescanning the model on a desktop scanner and overlaying it onto the original CAD file to confirm analog positions before proceeding.
• Occlusal verification: Confirm bilateral contacts, anterior guidance, and absence of premature contacts before delivery.

A dimensional discrepancy as small as 30 microns across a full-arch implant framework generates immediate static shear stress on implants and screws, so catching fit errors at this stage removes the most expensive downstream consequence, which is a full remake.

Step 6: Complete Team Handoff With Clear Roles

The FAM Method centers on one team and one workflow. The handoff between clinical and lab roles is where most hybrid workflows fail, and where a trained, delegated team creates the speed advantage that makes same-day delivery realistic.

Role mapping for a fully in-house workflow follows a clear delegation structure.

Reserve your spot

• Dentist / surgeon: Implant placement, multi-unit abutment connection, photogrammetry supervision, final delivery, and torque.
• Surgical assistant: Pre-op records acquisition such as intraoral scanning and photogrammetry setup, room setup, and chairside support during surgery and delivery.
• In-house lab technician: Receives merged digital files, executes exocad design, manages the printing queue, and performs model verification and finishing.
• Treatment coordinator: Manages patient communication, financing, and scheduling from consult through delivery and follow-up.

Full-arch programs commonly fail due to new team members, forgotten steps, half-remembered workflows, and excessive knowledge residing only in the doctor’s head rather than being documented and accessible. A written SOP for each handoff point, including clinical to lab, lab to clinical, and clinical to front office, provides the structural fix. The FAM Method includes SOP templates as part of its digital resource library distributed to every course alumnus.

Once the immediate-load provisional has been worn for the healing period and has validated esthetics, phonetics, and occlusion, the team proceeds to fabricate and deliver the permanent restoration.

Step 7: Deliver Final Restoration and Archive Digital Records

The final restoration, typically monolithic zirconia or a zirconia-hybrid supported by a milled titanium bar, replaces the provisional once healing is complete and all functional parameters have been validated. The definitive monolithic zirconia prosthesis is minimally cut back and veneered facially with porcelain for esthetics, then seated with the screw resistance test and periapical radiographs used to confirm fit before tightening to 15 Ncm.

Digital records from the completed case are archived. Digital records from the workflow enable rapid reproduction of fractured or replacement prostheses and simplify long-term maintenance and future adjustments, which creates a direct operational advantage over analog workflows where records are not reproducible.

Ready to implement the full 7-step FAM Method in your practice? Start with the FAM Flagship Course to master same-day delivery in your practice.

Outsourced vs. In-House: A Full-Arch Workflow Comparison

A hypothetical comparison illustrates the operational gap between outsourced and in-house models. Consider two practices each seeing four full-arch consults per month.

Practice A uses an outsourced lab model. Scan files leave the practice after surgery, and the lab returns designs in five to seven business days. Patients return for a second appointment, often to swollen tissue, for delivery. Chair time per case runs six to eight hours across two appointments. At this pace, the practice completes two to three arches per month after accounting for scheduling friction and remakes.

Practice B has implemented the FAM Method with an in-house lab technician trained in exocad. Photogrammetry capture happens chairside, and the lab technician begins design while surgery is in progress. The immediate-load prosthesis is printed and delivered the same day. Total chair time per case is two to four hours across one appointment. At this pace, the practice completes four to six arches per month with the same surgical schedule and eliminates the outsourcing markup on every case.

Dental laboratories adopting CAD/CAM technology report 40–60% reductions in production time per case and near-total elimination of rework due to fit errors. Practices that bring that capability in-house see similar efficiency gains at the practice level.

Common Challenges and Troubleshooting for In-House Full-Arch Workflows

The most common implementation challenges when bringing full-arch design in house fall into four categories.

• Training gaps: 28% of U.S. labs were struggling to hire CAD CAM staff, with rural vacancy rates exceeding 15%. Practices that train their existing team, rather than hiring, usually close this gap faster. The FAM Design and Finish Course supports this with two days of exocad design and two days of aesthetic finishing, with beginner and advanced tracks separated by skill level.
• Handoff friction: Miscommunication with the dental laboratory commonly causes errors such as incorrect shade matching or poor-fitting prostheses, which results in wasted time and compromised patient outcomes. Written SOPs and shared digital case files, rather than verbal handoffs, provide the structural fix.
• Equipment calibration: Typical pitfalls in CAD/CAM full-arch workflows include data quality issues such as poor scan stitching, soft tissue movement, or unstable scan bodies, and cross-system tolerance stacks such as CAD library mismatch or CAM postprocessor inaccuracies. A standardized pre-case checklist that confirms scan body seating radiographically, verifies library version, and logs printer calibration prevents most of these failures.
• Scaling volume: Advanced digital workflows for full-arch implant rehabilitation require proficiency in multiple software platforms and familiarity with guided surgical protocols, which represents a considerable learning curve. Volume scales when the team, not just the dentist, owns the workflow. Delegation provides the mechanism, and training the full team provides the prerequisite.

Measuring Success in an In-House Full-Arch Program

Objective metrics for an in-house full-arch workflow fall into four categories.

• Turnaround time: Measure time from implant placement to same-day provisional delivery, and from provisional to final restoration delivery. The FAM Method targets two to four hours for same-day delivery.
• Remake rate: Dental labs report average remake rates of approximately 4–10% overall, with traditional or analog workflows typically around 3–4% and digitized workflows often below 1–3%. Track remake rate by case type and root cause, such as passive fit failure, library mismatch, or finishing error, to drive targeted improvement.
• Case acceptance and volume: Track consults seen, cases accepted, and arches delivered per month. The FAM Method is designed to move practices from one to two arches per month to five or more per week as the team workflow matures.
• Revenue tracking: Measure revenue per arch, total full-arch revenue per month, and the reduction in outsourcing costs. Alumni of the FAM Method report adding $1M+ per year in practice revenue after adopting the workflow, reflecting both volume growth and margin improvement from eliminating external lab fees.

Advanced Full-Arch Applications After the Core Workflow

Practices that have stabilized the core seven-step workflow can pursue several advanced applications.

• Scaling to 5+ arches per week: This level requires parallel processing, where the lab technician begins design on Case A while the surgeon is placing implants for Case B. This structure becomes realistic only when the team is fully cross-trained and the SOP is documented clearly enough that no single step depends on one person.
• Atrophic cases: Zygomatic, pterygoid, trans-sinus, and palatal-approach implant placements require advanced surgical training beyond the scope of the standard FAM Method. The FAM Advanced Live Surgical track in Parker, CO is gated to dentists with 200+ career arches placed and focuses specifically on these techniques.
• FP1 specialization: FP1 prosthetics differ meaningfully from FP2 and FP3 in case selection, bone reduction planning, and lab design. Implant positions for FP1 cases are planned using the most apical bone concept, which may require scalloped bone reduction to align bone contours with the planned gingival margin. The FAM FP1 Course addresses this workflow as a dedicated two-day curriculum.
• Multi-location standardization: Practices operating across multiple locations need documented SOPs, shared digital libraries, and a common exocad version across all sites. The FAM digital resource library and alumni community provide the reference infrastructure for this level of standardization.

Frequently Asked Questions

What equipment does a practice need to bring full-arch design in house?

The minimum equipment set for an in-house full-arch digital workflow includes a CBCT unit, an intraoral scanner, a photogrammetry system such as the Imetric ICam4D, a CAD workstation running exocad DentalCAD, and a clinical-grade 3D printer for immediate-load provisionals. For final restorations, practices either invest in an in-house milling unit or send the verified exocad design file to a trusted milling partner, which keeps design in house while outsourcing only the milling step. The FAM KOL (Key Opinion Leader) buying group gives alumni preferred pricing on Neodent photogrammetry systems, exocad licenses, Envisiontec and DentaFab 3D printers, and related equipment at no recurring cost.

How long does it take to train a team on the in-house full-arch workflow?

Most practices that attend the FAM Flagship Course as a full team, including dentist, surgical assistant, in-house lab technician, and treatment coordinator, return home aligned on the workflow and begin running cases within weeks. The Design and Finish Course adds two days of exocad design and two days of aesthetic finishing for the lab technician, calibrated to their existing skill level. The full FAM Fellowship curriculum, which includes Flagship, Design and Finish, and Live Surgical, delivers 90+ hours of continuing education and is designed to be completed across a single year. The alumni community provides ongoing case support after every course ends, so the team is never troubleshooting alone.

What is the difference between photogrammetry and intraoral scanning for full-arch cases?

Intraoral scanners capture soft tissue and remaining dentition accurately for single-tooth and short-span cases but accumulate stitching errors across the full arch, and those errors translate directly into passive-fit failures at the implant interface. Photogrammetry systems such as the Imetric ICam4D use mathematical triangulation to achieve the sub-5-micron accuracy discussed in Step 2, rather than relying on image stitching like intraoral scanners. In the FAM Method, the intraoral scan is used for soft-tissue reference only, and implant positions are fixed from the photogrammetry file. The two datasets are merged in exocad to produce a complete digital model that combines exact implant coordinates with soft-tissue anatomy.

How does the FAM Method handle the FP1 prosthetic classification differently from FP2 and FP3?

FP1 prosthetics replace only the crown, and no gingival tissue is replaced by the prosthesis, so the surgical approach, bone reduction planning, and lab design workflow differ substantially from FP2 and FP3 cases. FP1 cases require scalloped bone reduction to position the bone-to-implant interface at the planned gingival margin, and the exocad design must account for a festooned emergence profile that guides soft-tissue healing. The FAM FP1 Course is a dedicated two-day curriculum covering FP1 case selection, surgical technique, and lab design, with lab technicians pulled aside for FP1-specific exocad instruction. It is available as a standalone course or as the fourth-course slot in the FAM Fellowship bundle.

What revenue impact can a practice realistically expect after implementing the FAM Method?

FAM alumni report adding $1M+ per year in practice revenue after adopting the FAM Method. The mechanism operates on three levers simultaneously: a faster workflow that allows more arches per week at the same surgical schedule, elimination of outsourcing markup on every case, and improved case acceptance driven by the treatment coordination and closing systems taught in the FAM Flagship Course and Treatment Coordinator Bootcamp. FAM’s in-house treatment coordinator maintains an 80% closing rate on full-arch consultations, and the Bootcamp is designed to transfer that benchmark to the attendee’s own practice. Revenue growth reflects volume, margin, and acceptance rate, and the FAM Method addresses all three.

Enroll in the FAM Fellowship and bring the complete FAM Method back to your practice, from photogrammetry capture through same-day delivery.

Conclusion: Turning Full-Arch Workflow Into a Scalable System

Outsourcing full-arch prosthetic design creates a constraint on speed, margin, patient experience, and the volume a practice can realistically deliver. Practices that scale to five or more arches per week do so because they run a better operating system, not because they have better patients or a larger market.

The FAM Method provides that operating system. Seven sequential steps, including pre-op records, photogrammetry capture, exocad design, immediate-load printing, verification, team handoff, and final delivery, integrate into a single repeatable workflow that any trained team can run. The technology exists, the training exists, and the alumni community of hundreds of FAM-trained dentists, lab technicians, and team members exists to support every case that comes after the course ends.

The gap between one arch per month and five arches per week usually reflects workflow, not clinical skill. Full Arch Masters focuses on that workflow around the procedure and gives teams a clear path to implement it.

Take the first step with Full Arch Masters and start running the full-arch workflow your practice is capable of.