For decades, the weeks after implant placement have largely been left to biology. But new clinical evidence suggests that may be changing. In the first nonsurgical clinical study to demonstrate significant bone growth around implant threads, researchers followed the effects of focused PEMF therapy for 24 months, with intriguing implications for the stability dip, osseointegration, and the future of immediate loading.

The Magdent Miniaturized Electromagnetic Device (MED) brings Pulsed Electromagnetic Field therapy directly to the implant site, offering a new biological adjunct in the treatment of peri-implantitis. Backed by clinical and preclinical research, the technology is designed to go beyond mechanical debridement by helping control inflammation, support bone recovery, and reshape the peri-implant microbiome, addressing several of the mechanisms that make peri-implantitis so difficult to manage.

Some of the most important forces in AOX restorations are the ones that never appear on a scan or radiograph. A restoration can look perfect on delivery day while quietly storing mechanical strain that doesn't reveal itself until years later. Learn why passive fit is the result of controlling an entire digital workflow—not just capturing an accurate scan—and why every step from CAD design to sintering plays a role in the long-term success of a case.

Full-arch zirconia restorations are often criticized for being “too heavy,” but weight is only part of the story. While zirconia is denser than acrylic-based alternatives, the mass of a restoration is determined just as much by its design as by the material itself.

In this article, we examine the relationship between density, volume, and prosthetic space, why excessive bulk often signals deeper design compromises, and how contouring, support distribution, and force management influence performance far more than weight alone.

Zirconia fractures are often described clinically as sudden events.

Mechanically, they are the final step of a long process. Ceramics fail through flaw-driven crack propagation. Microscopic defects introduced during manufacturing, adjustment, or surface modification act as stress concentrators. Under repeated loading, these flaws grow incrementally until the remaining cross-section can no longer sustain the applied force.

Zirconia is frequently described as “too hard” for dentistry.

From an engineering perspective, that statement misunderstands how structural ceramics actually fail. Hardness measures resistance to surface indentation. It does not describe fracture behavior. Zirconia fractures when tensile stress exceeds the material’s tolerance at a defect. Where that stress exists, and how it is distributed, matters far more than how hard the material is.

Zirconia is widely used. Widely discussed. And often misunderstood. Most of the conversation focuses on outcomes—what worked, what didn’t, what people prefer. Much less attention is given to the mechanics behind those outcomes. This new series, Mechanical Realities of Zirconia, takes a different approach. Instead of opinion or anecdote, it looks at how zirconia behaves under load—through stress, fatigue, geometry, and time. If you’ve ever felt like zirconia conversations miss what actually matters, this is where we start.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

Digital dentistry has transformed implant workflows, yet consistency often falls short of the technology’s promise. In this insightful piece, master technician Frank-Charles Pope III shares more than 25 years of experience with All-On-X cases to reveal the hidden challenges that compromise predictable outcomes. From incomplete data capture to untrained restorative teams, he outlines where precision is most often lost and how preparation, communication, and standardization can bring it back. Seen through a laboratory perspective honed by thousands of full-arch restorations, the article underscores a simple truth: success in digital AOX depends less on the tools themselves and more on the people who use them.

The dental industry is rapidly embracing artificial intelligence (AI) as a transformative force. For dentists, this isn’t just a trend—it’s a paradigm shift in how diagnostics, treatment planning, and patient care are approached. AI is unlocking new levels of precision, efficiency, and accessibility, allowing dental professionals to elevate their practices and provide unmatched care.

The rapid advancements in implant detection technology are revolutionizing dental implantology, offering clinicians non-invasive, efficient, and reliable methods to locate submerged implants. This article reviews the principles of implant detection, its clinical applications, and its potential to reshape restorative workflows in a way that elevates both precision and patient care.

ORCAA Global is redefining implant dentistry by combining life-changing patient care with transformative, hands-on doctor training. At its world-class facility in Guatemala City, clinicians work side by side with leading experts, performing real surgeries and mastering every stage of full-arch rehabilitation. But what truly sets ORCAA apart is its culture, one built on compassion, collaboration, and integrity rather than competition. It’s more than education; it’s a movement restoring confidence to patients and purpose to practitioners, one smile at a time.