June 3, 2026
Scan Second: Why the Best Digital Workflows Start Analog
By Will Wood, Director of Education at Smart On X

Key Highlights (TL;DR)
- Digital nails final prostheses. Immediate-load surgery is another story — a rigid digital chain has no reality check until it's too late.
- Three real cases prove it: a 30-minute backup conversion beat the printed prosthesis, shifted fiducials produced a confident-but-wrong bite, and one missing component stalled a case for ten hours.
- Hit "print" and you lose flexibility — cured resin can't be adjusted chairside. A conversion provisional stays workable until you lock it down.
- Invert the workflow: convert first, scan second. Dial it in chairside, then scan extraorally — handing digital a prosthesis that already works.
Nobody wants to be the one to say it out loud.
Digital workflows are impressive. The technology is real, the promise is genuine, and the results — when everything goes right — can be outstanding. But like any tool, digital works best when it's used for the right job at the right time. Getting the most out of it requires being honest about where it works, where it struggles, and what happens when those two things get confused. Anyone who has spent enough time in the All-on-X space has a story — a case where the scan wasn't perfect, the design was off, or biology simply moved faster than the workflow. And when that happens, who absorbs the consequences? The doctor, their staff, and most importantly, the patient.
If we can talk openly about why these workflows sometimes fail — not theoretically, but in real clinical situations — we can start having a more useful conversation about how to actually get the best out of digital, and how to protect patients and clinicians in the process.
Here are three cases. In most instances, names and identifying details have been omitted out of respect for the clinicians involved, but every one of them is real — and anyone who has spent enough time in this space will recognize them. The exception is Case 1, where the physician who organized the event chose to speak on the record.
Case 1: When the Backup Should Be the Starter
Dr. Sibera Troy Bannon, DDS, MICOI, MAAIP, had organized a large network education event and personally coordinated with a digital workflow provider to bring their top trainer in for a live demonstration. Ten to fifteen doctors in the room, all watching. Dr. Bannon had done everything right — he'd set the stage, brought in the best, and given the digital workflow every advantage.
Smart On X was there to support the Omnibut; our job was essentially done once the abutments were torqued. From that point, the digital team took the wheel.
The trainer spent close to an hour collecting records: scans, photogrammetry, reference shots. High-tech, precise, and methodical. While the files went off to be processed remotely, our Smart On X clinical educator made a practical suggestion: why don't we use a Rapid Arch as a backup — and convert it using Smart Denture Conversions, just in case?
A quick note on what that means: Rapid Arches are pre-fabricated arches that come in 3 different shapes and sizes to fit the vast majority of patients. Smart Denture Conversion (SDC) is the clinical protocol used to convert that arch into a functioning provisional chairside on the day of surgery. Together, they're fast, and as this case would prove, predictable.
The team agreed. Thirty minutes later, the converted Rapid Arch provisional was finished, polished, and sitting in a box. The decision was made not to deliver it, out of respect for the course's intent. They'd bring the patient back the next day for the digital delivery.
The next morning, with the room watching, the digital prosthesis was seated.
The patient's expression said everything. There was immediate soft tissue pain, significant enough that the patient had to be re-anesthetized just to tolerate the seating. When they were asked to bite, the occlusion was off. The tissue compression was unsustainable. The prosthesis was abandoned on the spot.
That's when the trainers reached for the box.
The Rapid Arch, converted chairside the day before in 30 minutes using the SDC protocol, was seated passively. No anesthesia. The occlusion was right because it had been captured physically, not virtually. The patient's reaction was immediate relief.
A 30-minute conversion, done as an afterthought, outperformed an hour of high-tech data collection from one of the best trainers in the space.
What makes Dr. Bannon's perspective particularly worth noting is that he wasn't a casual observer; he was the one who had organized the event and invited the digital provider in. He later described what he witnessed:
"During [a] live conversion, we encountered occlusal challenges with the initial digital provisional print. Recognizing the issue quickly, we pivoted to a [Rapid Arch] and Smart Denture Conversion workflow — and it absolutely saved the day. The final delivery the following morning was beautiful, functional, and perfectly aligned. That experience showed every doctor and technician in attendance what flexibility, experience, and great systems can achieve when working together."
Dr. Sibera Troy Bannon, DDS, MICOI, MAAIP
Nobody planned for SDC to be the solution that day. But it was.
Case 2: Trusting the Algorithm
A double-arch immediate load case. Excellent pre-op planning, solid surgical execution, fiducial markers in place to tie the scan data to the surgical reality. Everything that a modern digital workflow is supposed to do, done correctly.
During the procedure, the fiducial markers shifted. It happens. But here's where the story shifts: an inexperienced designer received the files remotely and, rather than flagging the discrepancy, tried to make it work. They forced the software to stitch together scan data that no longer existed in the same physical space.
No one caught it. Not the surgeon, not the workflow, because the error was buried in the alignment file, invisible until the prostheses were in hand.
Hours passed. The team waited for the print, the wash, the cure, and the finishing.
At delivery, the result was immediate and unrecoverable. The occlusion was catastrophically off. The upper and lower arches had a relationship to each other that existed only in software, not in the patient's mouth.
What saved the case was a pivot to an analog technique that's been around for decades: wax occlusal rims, fabricated chairside to physically establish the vertical dimension and centric relation. Once the bite was verified in the real world, the digital files were corrected, and the prostheses were reprinted.
The patient left with teeth that worked. The team, on the other hand, left very late.
The goal here is not to blame a designer; it's that there was nothing in the workflow to catch this kind of mistake. The software doesn't know what it doesn't know. It accepted bad input and produced a confident-looking output. Nobody in the loop — the surgeon, the remote designer, the printer — had a reality checkpoint until delivery.
Case 3: The Edema Clock
A high-caliber team, experienced across the board, implementing a new workflow for the first time. Surgery started at 7:00 AM. The implant placement was textbook. But a restorative step required a component that wasn't on the tray, and an hour was lost making the pivot from one abutment system to another.
By 10:00 AM, the surgical and scanning phase was complete. Files were sent to a design center nearly 3,000 miles away. Five hours for the design to return. Another ninety minutes to print, wash, cure, break supports, and finish a monochromatic resin.
At 5:00 PM — ten hours after the first incision — the prosthodontist was ready to seat the provisional.
The tissue was swollen, boggy, and uncooperative. The patient had reached their anesthetic ceiling. The rigid, printed provisional engaged three of five abutments. The midline was off. The occlusion was deranged. The patient was in pain and crying.
They were sent home without teeth and rescheduled for the next day.
This is what happens when a workflow has no slack. Every step in the digital chain is sequential — design, then fabricate, then deliver. There's no shortcut, no improvisation, no "let me reline this and get you out of the chair." When biology moves faster than the workflow, the workflow loses.
The tragedy isn't that something went wrong. It's rare that procedures go perfectly. It's that by the time they knew something was wrong, there was nothing left to do about it.
Patterns Across All Three Cases
Put these cases together (and countless others), and a few things become clear.
Digital Workflows Are Unforgiving
They perform beautifully when every variable is controlled, every component is correct, every designer is skilled, and every patient cooperates with the timeline. When any of those conditions break down — and in surgery, at least one always does — the workflow has no give. Analog techniques can absorb a miss. You reline, you trim, you adapt. A cured block of resin cannot.
Data capture inside the mouth is fundamentally harder than it looks.
Tissue moves. Fiducials shift. Edema distorts. The environment is wet, dynamic, and uncontrolled. The scan that looks perfect on the screen may be encoding errors that won't surface until the prosthesis is in hand, hours later.
Two chances to get it wrong — and no way to know until delivery.
A digital workflow has at least two critical points where errors can enter undetected: the scan and the design. A flawed scan can produce a design that looks perfectly correct on screen. A flawed design can produce a prosthesis that looks perfectly correct in hand. The problem is that neither failure reveals itself until the prosthesis is in the patient's mouth, hours after surgery, with no good options left. Digital doesn't forgive imperfection — it hides it, right up until the moment it can't.
Who Is the Workflow Actually Serving?
There's one more thing worth saying directly. There are clinicians doing digital workflows who have accepted that same-day provisional delivery isn't always possible — and have made peace with sending patients home and returning the following day (or more) to deliver teeth. That's understandable given the constraints of current digital workflows. But if you asked those patients whether they'd prefer to go home the day of their procedure with a functioning provisional, or wait days for delivery, the answer would be the same virtually every time.
Same-day teeth are achievable. And they are better for the patient in every meaningful way. The honest question every clinician should ask is whether delayed delivery is actually a clinical decision, or whether it's an accommodation to a workflow that wasn't designed with the patient's best interest at the center.
The cases above aren't just stories about workflows that failed. They're stories about patients who went home without teeth, patients who were re-anesthetized unnecessarily, and patients who were asked to absorb the consequences of a system that had no margin for error. If a better option exists, why have we accepted this as the standard?
A Better Way to Think About Digital
Digital workflows are genuinely powerful, but they are not perfect. Treating every step like it must be digital is the problem. The better — or even best — solution is to use digital at the right place and time.
For example, instead of trying to capture a perfect digital record inside a compromised surgical site, you do the conversion first. You deliver a provisional that's been physically dialed in — real occlusion, real tissue response, real patient feedback — chairside, on the day of surgery. The prosthesis fits because it was adapted to the mouth directly, not predicted from a scan.
Once the provisional is right, then you scan it. Not in the mouth — outside of it. Scan the prosthesis extraorally, in a controlled environment, without the distortion, movement, or edema that compromise intraoral capture. The scan is clean because the environment is clean.
The result is a digital file that represents something that already works — not a virtual prediction of what might work. The final digital prosthesis is based on a verified, proven fit. You've taken the hardest part of the digital problem — occlusion, esthetics, tissue harmony — out of the algorithm's hands and put it back in the clinician's hands, where it belongs.
This is about optimizing your workflow. Let digital excel where it works best: precision fabrication from a verified record. The biological problem gets solved by biology — by a clinician, chairside, in real time. The digital problem gets solved by digital — from a clean, extraoral scan of something that already fits.
This is exactly how Smart Denture Conversions (SDC) inverts the workflow to solve multiple problems at once.
The Bottom Line
Digital dentistry is a powerful tool — but as we said at the outset, every tool works best when it's used for the right job at the right time. A hammer is a great tool — but not if you need a screwdriver. The same logic applies to All-on-X. Clinicians are being told to almost entirely trust their workflow to systems that are, in practice, less forgiving than advertised. These issues make life difficult for clinicians and staff, but, most importantly, they leave patients absorbing the consequences. If the backup consistently outperforms the primary, maybe it's time to rethink which is which.
If you're doing All-on-X cases — or building toward them — the most important question isn't which scanner or software to buy. It's: how do you build a workflow that serves your patients first while delivering the efficiency your team needs to thrive?
Turns out the answer was already in the box. It just needed to be moved to the starting lineup.

About the Author
Will Wood
Director of Education at Smart On X
Will brings more than 20 years of experience across healthcare operations, hospital and clinic management, dental laboratories, and postgraduate residency programs.
As our Director of Education, he leads hands-on training for doctors, lab technicians, and clinical teams—helping them master All-on-X workflows through a prosthetically driven, systems-based approach that unites surgical, prosthetic, and technical disciplines for predictable, long-term results.
A retired Chief Master Sergeant in the United States Air Force, Will combines deep expertise in healthcare compliance and systems optimization with a proven record of leading high-performing teams and driving sustainable growth.









