When it comes to implants, I’m very much a novice. I’ve spent my career in clinical dentistry, but implant surgery has never been my clinical focus. Like many hygienists, general dentists, and even dental leaders outside of surgical practice, my understanding of implants has largely come from quick articles or infographics I saw in passing, conversations with colleagues who love this space, and the occasional implant maintenance course. I knew enough to appreciate the science and care for the patients in my chair. 

This year I promised to take more courses and read more research. In April, I attended the BioHorizons Global Symposium, and this month spent some time at Dentsply Sirona’s Implant Solutions World Summit and in between I have sat through several hours of additional learning on implants but it wasn't until this most recent meeting that the pieces started to come together to show a picture. The lessons I learned, I feel, translate well to the everyday implant dentistry novice like me, and I cannot wait to share them. 

Lesson 1: Immediate loading isn’t simply about “having enough bone” 

Before attending the summit, if someone had asked me what determined whether an implant could be immediately loaded, I probably would have answered that it depended largely on whether the patient had enough bone - width and depth. While that certainly remains an important consideration, I left this most recent event realizing that experienced implant clinicians think about the problem much differently. Their conversations consistently returned to implant design, bone quality, surgical protocol, primary stability, Implant Stability Quotient (ISQ) values, and digital workflows. Bone quantity was only one part of a much larger equation. 

It was during a discussion with implant clinician Dr. Mischa Krebs that the pieces started falling into place. While reviewing a recently published multicenter study, he explained that rather than limiting treatment to ideal patients, the surgical protocol was adapted to match the bone quality encountered during surgery.  

“By choosing the right drilling protocols,” he explained, “we ended up with absolutely similar ISQ values in the different bone qualities.” He continued by saying, “We’re not limited to saying we can do that, but only if the bone quality is that good.” 

That conversation challenged another assumption I didn’t realize I had. Like many clinicians outside implant surgery, I would have expected healed sites to consistently provide better stability than fresh extraction sockets. Instead, the study demonstrated higher average ISQ values in extraction sockets than in healed sites. The explanation, as I understood it, was that implant design, surgical planning, and appropriate protocols allowed clinicians to create predictable primary stability in situations that I would have previously considered less favorable. 

By the end of the discussion, I had stopped thinking about immediate loading as simply a bone problem and started viewing it as the result of biology, engineering, and evidence-based clinical protocols working together. That distinction may seem subtle, but for someone just entering this space, it fundamentally changed the way I thought about what makes immediate loading possible. 

Lesson 2: Implant stability and insertion torque aren’t the same thing 

If there was one concept that surfaced repeatedly throughout the summit, it was the distinction between insertion torque and implant stability. Before attending, I would have assumed the two largely went hand in hand. Higher insertion torque seemed like it should naturally translate into greater stability. As I learned throughout multiple presentations, the relationship is much more nuanced than that. 

The scientific discussions repeatedly focused on strain, or the amount of deformation placed on bone during implant placement. Every implant creates some level of surgical trauma, but the objective isn’t to maximize mechanical engagement at all costs. Instead, the goal is to create enough primary stability while staying within the biologic limits that bone can tolerate. Excessive strain damages bone; damaged bone must remodel before it heals, and that remodeling period can temporarily reduce stability while new bone forms around the implant. 

Dr. Adriane Shilmover summarized the concept during one of our conversations in a way that immediately made sense. “Clinicians are like, ‘I had 90 Ncm of torque,’ and they’re so proud,” she said. “But what did you just do to the bone?” That single question reframed the entire discussion. Rather than celebrating the highest torque value possible, the focus shifted toward achieving predictable stability without unnecessarily traumatizing the surrounding bone. That concept proved to me why implant design remains such an active area of ongoing research. Thread geometry, body design, and surgical protocols are not simply engineering exercises; they are attempting to create an environment where bone heals predictably without excessive remodeling. The goal isn’t the maximum force. It’s the right amount of force in the appropriate circumstances. 

Lesson 3: Predictability has become the real goal

The third lesson, maybe surprisingly, was how much time clinicians and engineers spent talking about workflow. The implant was only one piece of a much larger process that included treatment planning, digital communication, guided surgery, restorative design, and manufacturing. The more I listened, the more I realized the common thread wasn’t speed as much as it was predictability in a workflow that truly flows. 

One of the demonstrations that stood out to me involved scanning immediately after implant placement rather than waiting until the implant had healed. My initial reaction was simple: why scan now if the patient isn’t ready for the final restoration? The answer was that the implant position isn’t expected to change during healing, so clinicians can use that healing period to design and manufacture custom abutments or provisional restorations rather than waiting until the patient returns months later. The biology still takes the time it takes, but the workflow becomes much more efficient. 

That philosophy came up repeatedly throughout the meeting. Whether the discussion centered on guided surgery, patient-specific abutments, all-in-one cloud-based systems that include communication between the practice and laboratory, the objective wasn’t simply adding more technology. Each step was designed to remove uncertainty from the next one. Dr. Krebs explained, “Patients always come back and say, well, but you gave me a tooth back, same day, or a week later, but my neighbor has to wait 6 months until he gets it. What’s the difference? How can it work? Actually, the difference is just the right workflow, and I think that is what our patients actually ask from us. They don’t ask for long treatment. They ask for good, but predictable solution.” 

Lesson 4: Evidence matters, but so does understanding what evidence can and cannot tell us

One of the unexpected benefits of attending a meeting like this is having the opportunity to ask questions that probably would have seemed out of place during a traditional lecture. Throughout the summit, I found myself becoming just as interested in how research is conducted as I was in the research itself, and that is lesson four. During one discussion, I asked why so many clinical studies seem to recruit relatively healthy patients when the reality is that many of the patients we treat every day have diabetes, smoke, take multiple medications, or present with other medical complexities. 

The explanation helped me understand clinical research in a way I hadn’t appreciated before. Early studies are often designed to answer a very specific question while limiting as many outside variables as possible. If researchers are trying to determine whether a particular implant design or surgical protocol performs as intended, they first need to establish that baseline under controlled conditions before expanding into more medically complex patient populations. That doesn’t mean the results don’t apply to everyday practice. It means the science builds one question at a time. 

That conversation also changed the way I think about reading research. Like many clinicians, I’ve often skipped straight to the conclusions looking for the clinical takeaway. I now better understand who was included in a study and, just as importantly, who wasn’t, and how that can be just as valuable as the results themselves. 

Lesson 5: Technology isn’t replacing clinical judgment, it’s supporting it

We are hearing a consistent concern from dentists when it comes to AI assistance in radiograph interpretation for a variety of reasons but much of the blurred area for them is the idea that the authority to diagnose might be taken from them, that their clinical judgment will no longer be considered down the road if we lean into this technology. When I see the end-to-end solutions companies offer, I would expect a similar sentiment, that the workflows take away from clinical judgment. Instead, I found experienced clinicians repeatedly talking about judgment, decision-making, and knowing how to adapt to the situation in front of them. The technology wasn’t replacing experience; it was supporting it. 

During one of my conversations with Dr. Adriane Shilmover, I asked about how much of what we had learned during our demonstration would the average clinician already know? “That’s with experience,” she said. “You follow the protocol or someone’s guiding you and helping you.” Early in a clinician’s implant journey, protocols, mentors, continuing education, and manufacturer support all play an important role. Over time, however, experience begins to shape those decisions in ways that no textbook or software can fully replicate. Clinicians learn to recognize tactile feedback during implant placement, understand when something doesn’t feel quite right, and adjust their approach before a measurement ever confirms what they’re sensing. That is simply not replicable by current or imminent technology. 

By the time I boarded my flight home, I wasn’t thinking about implant dentistry the same way I had just a few days earlier. Rather than returning with a list of new products or technologies, I came home with a greater appreciation for the science, research, and clinical decision-making that support modern implant therapy. As someone who walked into the meeting as a self-described novice, I left realizing that the future of implant dentistry isn’t simply about placing implants faster or using more technology. It’s about helping clinicians make more informed, more predictable decisions for the patients sitting in front of them. For me, that was the most valuable lesson of all.