AI Innovations in Dentistry Programme 2025

Abstract 

This lecture is designed to provide a comprehensive overview of a digital patient journey, employing a fully digital orthodontic workflow. The presentation will highlight how each stage—from initial engagement to patient retention—is driven by advanced digital tools. The journey begins with a high-resolution scan that captures data for diagnosis, which seamlessly integrates into a smile visualization tool. Following this, the session will cover digital treatment planning and in-face visualization, leading to treatment with Aligners.

Additionally, we will delve into the cutting-edge advancements in early interceptive orthodontics, with a focus on young patients and teens who require mandibular advancement, skeletal palatal expansion, and alignment. To showcase the tangible benefits of these innovations, we will present clinical cases that vividly demonstrate how these advancements contribute to patient growth and enhanced treatment outcomes. This session promises to be both enlightening and illustrative of the transformative power of digital orthodontic workflows.

Learning Outcomes

• Understand the complete digital patient journey, from initial engagement to retention, using fully digital orthodontic workflow.
• Learn how high-resolution scanning integrates with smile visualization tools to support accurate diagnosis and patient communication.
• Gain proficiency in digital treatment planning and in-face visualization to enhance clinical decision-making and patient experience.
• Explore advanced techniques in early interceptive orthodontics, including mandibular advancement, skeletal palatal expansion, and alignment for young patients and teens.
• Analyze clinical cases that demonstrate the effectiveness of digital innovations in driving patient growth and improving treatment outcomes.
• Develop the ability to apply digital tools and protocols to deliver efficient, personalized, and transformative orthodontic care

Abstract

The integration of artificial intelligence (AI) into implantology is advancing clinical practices by improving diagnostic precision, treatment planning, and prosthetic workflows. AI-supported software facilitates comprehensive analysis of radiographic and CBCT data, enabling accurate anatomical landmark identification, virtual implant positioning, and prosthetic design. These technologies enhance efficiency, reduce human error, and provide personalized treatment strategies tailored to individual patient needs.

Applications of AI in daily practice include automated segmentation of imaging data, dynamic jaw tracking, and predictive modeling for implant success and complication management. Additionally, AI streamlines prosthetic design processes, offering superior accuracy in occlusion, fit, and aesthetics. Despite its transformative potential, challenges such as data security, algorithmic bias, and ethical concerns necessitate ongoing research and collaboration to ensure its responsible implementation.

This lecture will give an insight about AI’s growing role in implantology which signifies a paradigm shift towards precision, efficiency, and patient-centered care in routine clinical practice.

Abstract

Pain management is one of the most important factors for achieving a successful treatment and behaviour management in pediatric dentistry. Although conventional anesthesia with traditional syringes is the most frequently used technique,  it can be difficult for clinicians to administer especially in pediatric patients. Nowadays, with the newly developed techniques such as digital anesthesia systems, a more effective and painless  local anesthesia can be achieved.In this presentation, we will be discussing the digital anesthesia systems using the most effective local anesthesia administering techniques with the help of the current evidence and clinical cases to better understand the advantages of these systems and techniques.The main goal is to achieve painless and effective anesthesia in pediatric patients.

Learning Objectives

• Understand the significance of pain management in pediatric dentistry and its role in successful treatment and behavior guidance.
• Identify the limitations and challenges of conventional syringe-based anesthesia techniques in children.
• Explore the principles and functionality of digital anesthesia systems and how they differ from traditional methods.
• Evaluate current evidence and clinical cases demonstrating the effectiveness and advantages of digital anesthesia in pediatric patients.
• Gain practical insights and strategies to administer painless and efficient local anesthesia using digital systems in everyday pediatric dental practice.

Abstract

As digital technologies reshape modern dentistry, 3D printing stands at the forefront of this transformation, offering a new vision for restorative workflows. But is it truly a game-changer—or just another tool in the digital workflow? This lecture takes a critical yet optimistic look at how 3D printing is revolutionizing restorative dentistry through enhanced efficiency, simplified processes, and improved clinical outcomes.

We will explore how 3D printing overcomes the limitations of traditional milling, enabling faster chairside production, intricate design capabilities, and a more sustainable use of materials. The focus will be on the precision and repeatability of printed restorations—crowns, veneers, splints, dentures, and implant prosthetics—delivered with accuracy and aesthetics.

Participants will be introduced to the essentials of 3D printing in practice: understanding the differences between DLP, SLA, and LCD technologies; selecting the right 3D printing resins, and fine-tuning key parameters such as layer height, curing protocols, and print orientation. Clear, step-by-step guidance will be provided to ensure restorations are functional, durable, and aesthetic.

Clinical case examples will showcase real-world applications across various treatment needs, demonstrating measurable benefits in turnaround time, consistency, and patient satisfaction. The discussion will also address current challenges—such as material limitations and considerations for complex cases—helping clinicians make informed choices.

By the end of the session, attendees will be equipped with the insights and confidence to integrate 3D printing into everyday clinical practice—whether for efficient provisional solutions or as a pathway toward long-term, definitive care. Join us to discover whether this technology is not just an innovation, but a true paradigm shift.

Learning Objectives

• Discuss the evolving role of 3D printing in restorative and prosthetic dentistry and its potential to transform traditional clinical workflows.
• Explain the differences between major 3D printing technologies (DLP, SLA, LCD) and how to select the most appropriate system for various clinical applications.
• Demonstrate an understanding of how to choose and apply suitable 3D printing resins based on clinical indications and performance requirements.
• Describe the key steps in optimizing print parameters and post-processing protocols to ensure accuracy, durability, and aesthetics of printed restorations.
• Evaluate clinical cases to assess the practical benefits and current limitations of 3D printing in terms of speed, precision, and patient satisfaction.

Abstract

In recent years, clear aligners have become a consistent presence in orthodontic practices as an effective and predictable treatment option. However, the success of aligner therapy relies not only on the aligners themselves but also on the continuous evolution of their design and the integration of innovative features that enhance clinical outcomes.

New structural elements such as integrated bite blocks, built-in buttons within the aligner, and customized trim lines have emerged as valuable tools, expanding the biomechanical possibilities of aligner treatments. These innovations enable better control of tooth movements, more efficient force delivery, and a more personalized approach tailored to each patient’s clinical needs.

This lecture will present clinical cases that achieved nearly 90% predictability using a single set of aligners. Such results were made possible through highly precise digital planning, meticulous staging of tooth movements, and the strategic incorporation of these new built-in features during the treatment design process.

The indications, limitations, and clinical benefits of these integrated aligner elements will be discussed, along with their impact on orthodontic biomechanics and patient experience. Emphasis will also be placed on the crucial collaboration between the clinician and the digital technician to ensure that the final aligner design accurately incorporates the intended biomechanical strategies.

The aim of this presentation is to demonstrate how contemporary aligners have evolved far beyond being merely transparent plastic devices. Instead, they have become sophisticated orthodontic solutions capable of addressing increasingly complex cases with high efficiency, predictability, and patient comfort.

Learning objectives

• Discuss the evolution of structural innovations integrated into contemporary aligners and their impact on orthodontic treatment outcomes.
• Explain the biomechanical principles behind built-in features such as bite blocks, integrated buttons, and customized trim lines in aligner design.
• Demonstrate how precise digital planning and correct staging contribute to achieving high predictability in aligner treatments.
• Describe the clinical indications, benefits, and limitations of using integrated functional elements within aligners.
• Illustrate the importance of collaboration between clinicians and digital technicians to ensure successful incorporation of advanced aligner features into treatment plans.

Abstract

This immersive digital lecture will explore the evolution and clinical relevance of prosthetically driven, computer-guided implant surgery within the modern prosthetic workflow. We begin by clearly defining guided surgery—not just as a digital tool, but as a clinical philosophy—followed by a concise review of the most recent scientific evidence supporting its benefits in terms of accuracy, aesthetics, complication prevention, and long-term predictability.

Throughout the session, real clinical cases will be presented to illustrate how a prosthetic-first approach—enhanced by digital planning, surgical guides, and artificial intelligence—can dramatically improve both surgical outcomes and patient satisfaction. These cases will cover a range of indications, including single-tooth implants in the aesthetic zone, complex full-arch rehabilitations, and computer-guided bone regeneration protocols, using various guide designs and techniques.

Participants will be guided through key decision-making steps, with emphasis on the importance of diagnosis and treatment planning as the cornerstone of success. Additionally, the role of emerging technologies—such as AI-driven diagnostics and design—in reshaping modern implantology will be discussed, with a forward-looking perspective on where digital dentistry is heading.

The lecture is designed to benefit both clinicians starting their digital journey and those looking to refine and expand their existing workflows. Expect practical, evidence-based insights, along with valuable take-home messages, tips, and tricks that can be implemented immediately in daily practice. Indications, limitations, and clinical pearls will round out this comprehensive and inspiring session.

Learning Objectives

• Discuss the importance of accurate diagnosis and comprehensive treatment planning in ensuring long-term success of prosthetic rehabilitations—bridging traditional principles with modern digital protocols.
• Explain how guided surgery enhances precision in implant placement, optimizes aesthetic outcomes, and significantly improves patient confidence and satisfaction, thought evidence.
• Demonstrate how digitally driven workflows—including prosthetically driven planning and guided surgery—improve aesthetics, and help to minimize intra- and post-operative complications through predictable, reproducible protocols.
• Discuss the emerging role of artificial intelligence in modern dentistry, exploring current applications in diagnostics, treatment planning, and prosthetic design—highlighting how AI is shaping today’s clinical decisions.
• Explain the evolving future of prosthetic dentistry in the digital era, where AI, guided workflows, and predictive tools converge to elevate clinical outcomes, streamline efficiency, and redefine the patient experience.

Abstract

Adopting a digital-first approach is no longer limited to early adopters—it’s becoming essential to modern dental practice. This lecture explores how digital tools are reshaping the way clinicians diagnose, plan, and communicate treatment. From patient consultations to interdisciplinary collaboration and lab integration, the shift toward digital workflows is enabling more efficient, accurate, and patient-centered care.

Through real-world clinical examples, participants will see how digital visualizations can improve case acceptance, streamline referrals, and reduce communication barriers—whether you’re using an intraoral scanner or just beginning your digital journey. The session will also highlight how scanning technologies, such as the latest generation systems, can serve as valuable assets to support growth, not just through impressions, but by connecting diagnostics, documentation, and patient trust.

This lecture is designed for specialists seeking practical ways to modernize their workflows, enhance efficiency, and deliver more predictable outcomes in everyday dentistry.

Learning Objectives

• Understand the principles and benefits of transitioning toward a digitally enabled dental workflow.
• Explore how digital visualization improves communication with patients, labs, and interdisciplinary teams.
• Identify opportunities where digital tools can increase case acceptance and streamline clinical decision-making.
• Review clinical cases that demonstrate enhanced outcomes through digital planning and execution.
• Evaluate the role of intraoral scanners—whether already in use or considered for the future—as integrated tools for diagnostics, communication, and practice growth.

Abstract

In the posterior maxilla, residual bone height is limited by the presence of the sinus and often plays a key factor in the placement of dental implants.  A sinus lift is the ideal approach (when evaluating an atrophic maxillary ridge with deficiency in vertical height) to build additional bone in order to place a solid and stable implant. 

Not every clinician is blessed with the best dexterity or have experience of placing hundreds to thousands of implants.  Computer Guided Sinus Lifting System will aid clinicians in placing implants in pre-determined position, angle, and depth with minimum risk of membrane perforation. Most importantly, OneCAS will save clinicians tremendous headache and hassle that come from manually placing implants, and lifting sinus

Learning Objectives

• Recognize the clinical indications and benefits
• Understand the digital workflow
• Compare digital sinus lift protocols with conventional techniques
• Implement guided surgical techniques using 3D-printed templates
• Identify potential challenges and limitations of digital-guided sinus augmentation

Abstract

Digital workflows have become indispensable for delivering predictable, efficient, and patient-centric care. “Design, Plan, Execute: Digital Implant Workflows for Every Case” offers a comprehensive exploration of end-to-end protocols, from initial data acquisition to final restoration, tailored to both simple and complex clinical scenarios. Attendees will discover how to use intraoral scanners and CBCT imaging to capture precise anatomical and soft-tissue data, integrate AI-driven smile-design software for aesthetic planning, and employ coDiagnostiX for guided-surgery planning. Through a series of clinical cases, ranging from single-tooth replacements to full-arch rehabilitations, participants will see how digital protocols enhance accuracy, reduce chair time, and elevate patient satisfaction. Practical tips for surpassing common challenges, optimizing lab communication, and leveraging automated workflows will empower clinicians to adopt these technologies with confidence.

Learning Objectives

By the end of this session, participants will be able to:

• Discuss the key stages and tools involved in a fully digital implant workflow, from data capture to final restoration.
• Explain how AI-driven smile-design and guided-surgery software integrate to enhance treatment planning accuracy.
• Demonstrate the step-by-step process of converting a digital plan into a 3D-printed surgical guide and provisional restoration.
• Analyze strategies to minimize chair time and laboratory turnaround through optimized digital communication.
• Apply evidence-based protocols to manage both routine and complex implant cases using advanced digital tools.

Abstract

Data acquisition has become an indispensable tool in the modern dental practice, fundamentally transforming clinical workflows, diagnostics, and patient management. This presentation explores the burgeoning landscape of digital data capture, from intraoral scanners and CBCT (Cone Beam Computed Tomography) to digital photography and CAD/CAM (Computer-Aided Design/Computer-Aided Manufacturing) systems. We will discuss how integrating these technologies streamlines processes, enhances diagnostic accuracy, and improves treatment predictability. The abstract will highlight the benefits of a data-driven approach, including more precise treatment planning, personalized patient care, and the ability to track long-term outcomes. This session aims to empower dental professionals to leverage the full potential of data acquisition to elevate their practice in the digital era.

Learning Objectives

• Understand the various technologies and devices used for data acquisition in modern dentistry, including intraoral scanners, CBCT, and digital photography, and their specific applications in different clinical scenarios.
• Learn how to integrate digital data from multiple sources to create a comprehensive patient profile, enabling more accurate and predictable treatment planning and enhancing communication with both patients and lab partners.

Abstract 

The needs of patients have led to changes in implant designs. Every decade, we gain more insight into implantology and acquire a variety of better instruments to expand our indications. 

Recent advancements in implant shape and design technologies have fundamentally altered our approach to therapy. Tooth shaped dental implants are now possible based on bone healing capacity and time management. Given the current trend of immediate or early insertion, this innovative implant technology provides our patients with quick and safe treatments for nearly all indications. Recent advancements in implant shape and design technologies have fundamentally altered our treatment approach. 

The benefits of the new dental system that covers all indications will be discussed in this lecture. A variety of case series that were completed using a model-free, full digital workflow will be demonstrated step-by-step, both surgically and prosthetically. 

Learning Objectives 

• Treatment protocols for different implant designs
• Prosthetically driven implant placement 
• Model free digital prosthetic solutions for single to full mouth implant treatments
• Immediate/early insertion techniques for faster, safer outcomes
• Universal digital workflow with one implant system across all indications

Abstract

Patient-specific implants (PSIs) are now allowing us to set new standards in challenging cases of full-mouth rehabilitation and mandibular reconstruction. In this lecture, Prof. Hesham El-Hawary presents a fully digital workflow—beginning with imaging and virtual planning to 3D-printed execution—displayed through real clinical cases. Attendees will gain insights into principles of digital design with surgical integration, and the advantages of customized vs standard solutions in complex oral and maxillofacial procedures. Understand the clinical indications for using patient-specific implants in full-mouth rehabilitation and mandibular reconstruction.

Learning Objectives

• Understand the clinical indications for using patient-specific implants in full-mouth rehabilitation and mandibular reconstruction.
• Describe the end-to-end digital workflow, from data acquisition and virtual planning to PSI design, manufacturing, and surgical application.
• Evaluate the advantages and limitations of PSIs compared to conventional reconstructive approaches and modifications to standard PSI designs
• Interpret clinical case examples that demonstrate successful application of digital PSIs and Patient specific mandibles in complex maxillofacial cases.
• Identify common pitfalls and troubleshooting strategies during the digital planning and intraoperative phases of PSI-assisted surgery.

Abstract

Cone-beam computed tomography (CBCT) has revolutionized the diagnostic and therapeutic approach in endodontics, particularly when dealing with complex clinical scenarios. This lecture will explore how CBCT can enhance the detection of hidden anatomy, resorptive lesions, vertical root fractures, and pathology undetectable on conventional 2D radiographs. Through clinical cases and evidence-based discussion, we will examine how 3D imaging impacts treatment planning and decision-making, including retreatments, surgical endodontics, and management of calcified canals. Emphasis will be placed on the integration of CBCT with digital workflows, including guided endodontics, artificial intelligence for image interpretation, and 3D analysis for surgical planning. By understanding when and how to utilize CBCT effectively, clinicians can significantly improve the predictability and outcomes of endodontic treatment.

Learning Objectives

By the end of this lecture, participants will be able to:

• Discuss the indications and limitations of CBCT in endodontic diagnosis.
• Explain how CBCT aids in the identification of complex root canal anatomy.
• Demonstrate how CBCT influences treatment planning in retreatment and surgical cases.
• Discuss the integration of CBCT into digital and guided endodontic workflows.
• Explain the role of 3D imaging in detecting vertical root fractures and resorptive defects.