Digital Orthodontics Symposium 2026

Abstract 

The integration of digital technologies has profoundly transformed orthodontic practice, ushering in a new era of precision, efficiency, and customization through CAD/CAM and 3D metal printing. This lecture, “From Design to Delivery: The Era of 3D Metal Printed Orthodontic Appliances,” provides a comprehensive overview of the complete digital workflow—from virtual design to clinical application.

The presentation begins by outlining the fundamental steps of appliance design, including digital data acquisition (intraoral scanning and CBCT integration), virtual setup, biomechanical planning, and CAD modeling. Emphasis will be placed on how these steps allow for highly individualized appliance fabrication tailored to each patient’s anatomical and biomechanical requirements.

The advantages of CAD/CAM-designed appliances over conventional techniques will be critically analyzed. These include enhanced precision, improved biomechanical control, reduced laboratory variability, increased patient comfort, and streamlined clinical workflows. The role of 3D metal printing in producing complex, high-strength appliances with consistent quality will also be highlighted.

Clinical applications will be demonstrated through a series of treated cases, including maxillary expansion in growing patients, camouflage treatment of skeletal Class III malocclusions, and interdisciplinary management of cleft lip and palate patients. These cases will illustrate how digital design enables innovative solutions that are often difficult or impossible with traditional methods.

By bridging digital design principles with real-world clinical outcomes, this lecture aims to provide clinicians with a clear understanding of how to integrate 3D metal printed appliances into contemporary orthodontic practice. 

Learning Objectives

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

• Discuss the complete digital workflow from data acquisition to delivery of 3D metal printed orthodontic appliances.
• Explain the key advantages of CAD/CAM-designed appliances compared to conventional orthodontic techniques.
• Demonstrate the fundamental steps involved in designing orthodontic appliances using digital software.
• Discuss clinical indications and case selection for 3D metal printed appliances in orthodontics.
• Explain the biomechanical considerations underlying digitally designed appliances.
• Demonstrate the application of 3D metal printed appliances through clinical case examples, including expansion, camouflage, and cleft cases.

Abstract 

The integration of clear aligner therapy into orthognathic surgery protocols has expanded rapidly in recent years, driven by advances in digital workflows, virtual surgical planning, and CAD/CAM-based appliance design. While aligners offer clear advantages in terms of esthetics, patient comfort, and digital control, their application in surgically assisted orthodontic treatment remains a subject of debate. This lecture critically examines the role of aligners in the pre-, peri-, and post-surgical phases of orthognathic treatment. Indications, limitations, and biomechanical challenges will be discussed in comparison with conventional fixed appliances, with particular emphasis on complex tooth movements, vertical control, transverse discrepancies, and surgical decompensation. The impact of aligners on interdisciplinary communication, digital treatment planning, and surgical accuracy will be highlighted. Special attention will be given to hybrid treatment concepts combining aligners with skeletal anchorage systems and auxiliary mechanics, aiming to overcome traditional limitations of aligner therapy in orthognathic cases. Clinical case examples will illustrate decision-making strategies, common pitfalls, and practical solutions for successful integration of aligners into surgical workflows. The lecture aims to provide a balanced, evidence-based assessment of whether aligners represent a true advancement in orthognathic treatment or introduce new clinical challenges that must be carefully managed.

Learning Objectives

After attending this lecture, participants will be able to:

• Evaluate the indications and limitations of clear aligner therapy in orthognathic surgery cases.
• Compare aligner-based and fixed appliance approaches in pre- and post-surgical orthodontic treatment.
• Understand biomechanical challenges associated with aligners in the surgical decompensation and finishing phases.
• Assess the role of digital workflows and virtual surgical planning when using aligners in orthognathic patients.
• Apply hybrid strategies, including skeletal anchorage and auxiliaries, to optimize outcomes in aligner-based surgical cases.

Abstract

This advanced clinical session explores how modern biomechanical principles can be elevated and adapted to maximise predictability in Invisalign treatment. Dr Suliman will guide participants through force systems, staging strategies, attachment design, and the integration of auxiliaries to manage both growing patients and complex adult malocclusions. The session emphasises practical, evidence-based approaches that enhance treatment efficiency and clinical outcomes.

Learning Objectives

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

• Apply advanced biomechanical principles to optimise clear aligner treatment planning.
• Understand how force systems differ between aligners and fixed appliances.
• Design predictable staging for challenging movements (extrusion, rotation, torque, intrusion).
• Integrate auxiliaries (TADs, elastics, attachments) to enhance biomechanics.
• Improve outcomes in growing patients and complex adult cases.
• Identify biomechanical pitfalls that reduce predictability—and how to avoid them.

Abstract

Recently the feasibility of modern CAD/CAM workflows were described to manufacture insertion guides and metal printed appliances to improve the possibilities of palatal TAD anchorage. Both conventional and digital workflows are safe and efficacious and broaden the treatment options significantly. Advantages of digital workflow are that TADs and appliance can be inserted in just one appointment, more rigid appliances can be designed and a higher precision can be obtained due to the use of scanners. Disadvantages of the new digital workflow may be higher cost and more time that is needed for the incorporation of digital workflows and design of the appliances. Additionally, there is always need for a laboratory process, whilst some conventional TAD appliances can be bend and adapted directly chairside Metal printed appliances are very rigid and not flexible and thus cannot be activated or bent easily, which may also be considered as a disadvantage compared to conventional TAD borne sliders.

Learning Objectives

• Understand the principles of CAD/CAM technology as applied to skeletal anchorage systems in orthodontics.
• Identify the latest digital workflows for designing and fabricating customized anchorage devices.
• Evaluate the clinical advantages and limitations of CAD/CAM-based skeletal anchorage compared to conventional approaches.
• Apply case-based strategies to integrate CAD/CAM techniques into treatment planning for complex orthodontic cases.
•  Analyze recent evidence and research trends regarding accuracy, stability, and patient outcomes with CAD/CAM-assisted skeletal anchorage.

Abstract

Long-term orthodontic stability remains one of the most persistent challenges in clinical practice. Conventional retention is often used routinely after treatment; however, it does not address the biological and functional factors that determine whether a corrected tooth position can remain stable once active retention is removed. This lecture proposes that retention should be considered a diagnostic and treatment-planning decision rather than simply a post-treatment device.

The presentation examines three distinct mechanisms commonly described as relapse: elastic recoil of periodontal and gingival tissues, return of teeth toward their functional equilibrium, and physiological maturational changes occurring throughout adulthood. Particular emphasis is placed on factors that can be evaluated before treatment, including incisor position within the alveolar housing, mandibular transverse dimensions, the curve of Spee and occlusal contact scheme, and the patient's functional envelope.

A digital diagnostic workflow integrating intraoral scanning, CBCT, three-dimensional analysis and functional assessment is presented to define patient-specific anatomical boundaries of tooth movement. Digital setups are then evaluated against these boundaries rather than against predetermined arch forms or cephalometric norms. The influence of this approach on decisions regarding expansion, extraction, interproximal reduction, incisor inclination and occlusal finishing is demonstrated through selected clinical cases.

The lecture also introduces the concept of the Incisal Bone Trajectory Envelope, an ongoing, unpublished approach intended to quantify the anatomical range within which individual teeth may be moved while remaining within the alveolar housing.

Ultimately, the proposed approach does not advocate eliminating retention. Instead, it aims to identify when stability may be designed into treatment and when long-term retention remains the appropriate, deliberately planned clinical decision.

Learning Objectives 

• Explain the key biological and functional causes of orthodontic relapse.
• Identify pre-treatment factors that influence long-term stability.
• Discuss anatomical boundaries for safe and stable tooth movement.
• Demonstrate how digital diagnostics can guide treatment planning.
• Evaluate when long-term retention is clinically necessary.

Abstract

Obstructive sleep apnea (OSA) is the most common sleep disorder among adults, as epidemiological data suggest that globally 936 million adults between 30 and 60 years have mild to severe OSA. OSA is characterized by repetitive episodes of complete or partial upper airway obstruction during sleep and is often accompanied by symptoms as poor sleep quality, poor concentration, and daytime sleepiness. These sleepy drivers can be dangerous on motorways by killing themselves and others due to severe motor vehicle accidents Continuous positive airway pressure (CPAP) is still regarded as the gold standard therapy, but due to many side effects about 50 % of OSA patients do not tolerate the mask. Mandibular advancement devices (MADs) are a proven, effective treatment for OSA and snoring and are recommended by international scientific guidelines. They hold forward the lower jaw during sleep and maintain an open airway for healthy breathing. As such, a challenging new interdisciplinary field opens to dentists/orthodontists all over the world. It is mandatory that the dentists are well trained in dental sleep medicine before they join the multidisciplinary team and start screening, treating and managing OSA patients over years and decades. Substantially changing the quality of a person`s life with an oral appliance is a rewarding experience for dentists and orthodontists in this rapidly evolving new field.

Learning objectives

• Describe the global health burden of obstructive sleep apnea
• Explain the pathophysiology of obstructive sleep apnea and snoring
• Describe the mechanism and clinical use of CPAP therapy
• Explain how oral appliances maintain airway patency
• Compare different designs of oral appliances used in OSA management
• Demonstrate the clinical steps of fitting, titration, and follow-up of oral appliance therapy
• Discuss the role of multidisciplinary collaboration between dentists/orthodontists and sleep physicians in OSA management

Abstract

Dr. Raj will briefly explain the advantages of digitally measuring muscles and occlusion, enabling dentists to register a bite accurately for any dental procedure, from a single-tooth filling to a multi-implant full-mouth rehabilitation.

He will also discuss the importance of measuring trajectories with axiography and digital facebow/3D articulators to improve efficiency, precision, and communication with the laboratory, leading to better treatment outcomes with any orthodontic system, including aligners and conventional orthodontics.

In addition, he will highlight the concept of achieving a bilaterally symmetrical isotonic muscle bite through the use of patented TENS units, as well as the role of electromyography in muscle assessment and bite confirmation.

Dr. Raj will further outline the clinical value of digital occlusion technology in verifying the bite with micron-level precision, which is especially significant given that occlusal proprioception begins at 5 microns.

Learning Objectives

• Understand the importance of utilizing digital technology in everyday orthodontic practice.
• Recognize how digital dentistry can support not only tooth movement but also functional occlusion and facial aesthetics.
• Explain the role of digital 3D articulators in improving communication with dental laboratories and treatment planning for procedures ranging from single-tooth restorations to full-mouth rehabilitations, orthodontics, and smile design.
• Understand the role of muscle physiology in occlusion and its impact on achieving a stable bite.
• Differentiate between reprogrammers and deprogrammers and understand their role in occlusal management.
• Appreciate the broader role of dentists as oral physicians responsible for both dental function and overall oral health.

Abstract

Refinements remain a major challenge in aligner therapy, particularly in complex malocclusions with sagital, vertical or transversal corrections. This lecture presents a structured approach to treatment planning that minimizes refinements and increases predictability. Attendees will learn protocols for optimized staging, torque control, elastic strategies and anchorage management. Attendees will also learn how to optimize the tools available in clear aligner therapy such as power ridges, elastics, bite ramps, precision cuts and trimline cut. 

Learning Objectives

• Explain the key factors contributing to refinements in clear aligner therapy. 
• Apply optimized staging strategies to improve treatment predictability. 
• Demonstrate effective torque control and anchorage management. 
• Describe the appropriate use of elastics and bite ramps for complex corrections. 
• Utilize aligner features such as power ridges, precision cuts, and trimline modifications effectively.

Abstract

Clear aligner therapy has evolved far beyond the correction of tooth position. Achieving successful treatment outcomes requires a comprehensive clinical approach that combines accurate diagnosis, appropriate case selection, biomechanical control and careful management throughout every stage of treatment.

This lecture will explore the clinical decision-making behind predictable aligner therapy through a selection of cases of varying complexity. Particular attention will be given to treatment planning, staging, attachments, auxiliaries and refinement strategies, highlighting how small clinical decisions can significantly influence the final outcome.

Beyond achieving the planned tooth movements, treatment success should also consider function, periodontal health, stability and the overall quality of the finishing. As patients progress through aligner therapy, maintaining an optimal oral environment becomes an integral part of clinical management. Practical considerations regarding plaque control, interdental care and daily oral hygiene during treatment will therefore be incorporated naturally within the clinical cases presented.

Learning Objectives

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

• Explain the key principles of diagnosis and case selection for predictable clear aligner therapy.
• Apply biomechanical principles to optimize staging, attachments, and auxiliaries.
• Identify clinical factors that influence treatment progress and the need for refinements.
• Evaluate treatment outcomes considering function, periodontal health, stability, and finishing quality.
• Discuss practical oral hygiene and plaque-control strategies during clear aligner treatment.

Abstract

The continuous demand for reduced treatment duration, enhanced precision, and improved patient experience has accelerated the adoption of advanced technologies in orthodontics, with laser-assisted procedures gaining increasing clinical relevance. the lecture will present a clinically and research-oriented overview of the role of lasers as an adjunctive tool in contemporary orthodontic practice.

Focusing on evidence-based orthodontic applications of laser technology, including acceleration of orthodontic tooth movement through biologically mediated responses, controlled and atraumatic debonding of orthodontic brackets, and soft-tissue surgical interventions such as exposure of impacted teeth and frenectomies. Clinical advantages such as improved surgical precision, reduced intraoperative bleeding, minimized postoperative discomfort, faster healing, and decreased chair time are critically discussed.

Scientific evidence from current literature is integrated with representative clinical cases to evaluate the effectiveness, safety, and clinical outcomes of laser-assisted orthodontic procedures. By correlating biological mechanisms with clinical performance, this lecture aims to provide clinicians with a practical, evidence-based framework for incorporating laser technology into their daily orthodontic treatment protocols, thereby enhancing treatment efficiency and optimizing overall treatment outcomes in modern orthodontics.

Learning Objectives

• Understand the biological basis of laser-assisted orthodontic procedures.
• Identify key orthodontic applications of laser technology.
• Evaluate clinical benefits and limitations of lasers in orthodontics.
• Apply evidence-based protocols for laser use in orthodontic practice.
• Correlate research evidence with clinical outcomes to enhance treatment efficiency.

Abstract

Oral appliances for the treatment of sleep apnea and snoring Oral appliances for the treatment of obstructive sleep apnea (OSA) and snoring are worn during sleep to maintain the patency of the upper airway by increasing its dimensions and reducing its collapsibility. Oral appliances are a simpler alternative to continuous positive airway pressure (CPAP). Over the last decade robust studies have demonstrated their efficacy and international sleep medicine guidelines recommend oral appliances for the treatment of mild to moderate OSA. This presentation will explain various designs of oral appliances, their mechanism of action and the clinical procedures of appliance fitting, instruction to the patient and follow up. And it will point out the importance of a multidisciplinary collaboration between sleep physicians and dentists/orthodontists. The demand for qualified dental sleep professionals in this exciting and rapidly evolving science of dental sleep medicine is certain to increase in the future. 

Learning objectives

• Explain the pathophysiology of snoring and obstructive sleep apnea OSA.
• Demonstrate the continuous positive airway pressure CPAP mask.
• Understand how oral appliances open the airway.
• Discuss various designs of oral appliances.
• Understand the clinical steps of fitting, titration and follow up of oral appliance therapy in OSA.
• Recognize the importance of the multidisciplinary collaboration between qualified dentists/orthodontists and sleep physicians.

Abstract 

This round table training provides a comprehensive overview of skeletal anchorage, from introductory concepts to advanced techniques, with a focus on practical application. Attendees will gain in-depth knowledge about temporary anchorage devices (TADs), particularly palatal appliances using mini-implants, and understand their benefits in orthodontic treatment. Current techniques and workflows will be demonstrated through clinical examples. In a practical exercise, participants will experience the digital workflow. Performing a mini-implant insertion in the anterior palate using an insertion guide and installing a metal-printed Beneslider will solidify the theoretical knowledge and improve the participants' confidence and skills in applying these techniques in their everyday practice. 

Learning Objectives 

After participating in this round table training, participants will be able to:

• Explain the biological and biomechanical principles of skeletal anchorage using temporary anchorage devices (TADs).
• Identify indications, contraindications, and advantages of palatal mini-implant– supported appliances in orthodontic treatment.
• Understand current digital workflows for the planning and fabrication of palatal appliances supported by mini-implants.
• Perform guided mini-implant insertion in the anterior palate using an insertion guide in a hands-on setting.
• Install and activate a mini-implant–supported palatal appliance (e.g., a metal printed Beneslider) following established clinical protocols.

Abstract

In this Round Table session we will discuss several Clear Aligner treatment cases with different malocclusions. Session is open for attendees to bring their own cases so we can review and discuss the best way to improve them During this session, we will show the ideal steps to develop a highly predictable treatment planning with real examples. While reviewing the case samples, we will focus on those movements that are more, or less, predictable when working with aligners. We will also conduct a real live demonstration on how to use embedded 3D controls to achieve our intended ideal final position, while reducing written requests to the makers technicians.

Learning Objectives

• The main steps to plan a predictable treatment with clear aligners
• How to determine our ideal final position.
• How to get the most out of embedded 3D controls in the planning software (multiple brands) to gain control over our digital plannings
• Tips to improve your Clear Aligner Treatments to achieve better results.

Abstract

Successful clear aligner treatment in early and adolescent patients depends on appropriate timing, growth assessment, treatment staging, and biomechanical control. This lecture will discuss how growth and development influence treatment planning, case selection, and outcome predictability. Practical strategies for staging tooth movement, monitoring growth, and adjusting treatment throughout development will be presented to help clinicians achieve efficient, predictable, and stable results in growing patients.

Learning Objectives

• Discuss key considerations in managing growing patients with clear aligners, including timing, growth phases, and treatment objectives.
• Explain the impact of growth and development on treatment planning and outcome predictability in early and adolescent patients.
• Demonstrate staging strategies and biomechanical approaches to achieve controlled and efficient tooth movement during growth.
• Discuss clinical protocols for optimising timing and intervention to improve treatment efficiency and long-term stability.
• Demonstrate how to evaluate and adjust treatment plans based on growth response and clinical progression.

Abstract

Dr. Raj will briefly explain the advantages of digitally measuring muscles and occlusion, enabling dentists to accurately register a bite for any dental procedure—from a single-tooth filling to a multi-implant–based full-mouth rehabilitation.

Dr. Raj will explain and demonstrate the importance of measuring mandibular trajectories digitally using axiography and digital facebow/3D articulators. This approach improves efficiency, precision, and communication with the dental laboratory, ultimately leading to better treatment outcomes.

This will be followed by a demonstration of how to register a bilaterally symmetrical isotonic muscle bite using a patented TENS unit, as well as how muscle activity can be measured with electromyography to confirm the accuracy of the bite.

Dr. Raj will also demonstrate the basic use of digital occlusion equipment that allows dentists to verify occlusion with micron-level precision, which is particularly significant since occlusal proprioception begins at approximately 5 microns.

Learning Objectives

• Discuss the importance of incorporating digital technology into everyday orthodontic practice.
• Recognize how digital dentistry contributes not only to tooth movement but also to functional occlusion and facial aesthetics.
• Understand the use of digital 3D articulators for improved communication with dental laboratories and for treatment planning across various procedures, from single-tooth restorations to implant-supported full-mouth rehabilitations, orthodontics, and smile design.
• Appreciate the role of muscle physiology in establishing and maintaining stable occlusion.
• Differentiate between reprogrammers and deprogrammers and understand their role in occlusal management.
• Recognize the broader role of dentists as oral physicians responsible for overall oral function and health.

Abstract

Temporary anchorage devices (TADs) have revolutionized orthodontic biomechanics by providing reliable, compliance-independent anchorage. However, achieving optimal clinical outcomes depends not only on accurate miniscrew placement, but also on appropriate abutment selection and precise transfer of the miniscrew position to the laboratory. This lecture, “From Placement to Precision: Mastering Miniscrews, TAD Abutments, and Lab Transfer,” presents a comprehensive and clinically oriented approach to these critical steps.

A detailed analysis of different TAD abutments will follow, highlighting their design features, clinical applications, and selection criteria according to specific treatment goals. The lecture will demonstrate how choosing the appropriate abutment enhances force delivery, appliance versatility, and overall treatment predictability.

A key component of the presentation is the accurate transfer of miniscrew position from the patient’s mouth to the laboratory. Both conventional and digital workflows will be discussed, including impression techniques, scan protocols, and integration into CAD/CAM systems. Strategies to minimize errors and ensure precise appliance fabrication will be emphasized.

Clinical cases will be presented to illustrate real-world applications, demonstrating how proper coordination between clinical placement, abutment selection, and lab communication leads to superior outcomes. This lecture aims to bridge the gap between chairside procedures and laboratory execution, empowering clinicians to fully harness the potential of miniscrew-based orthodontics.

Learning Objectives

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

• Discuss the fundamental principles of miniscrew placement.
• Explain the different types of TAD abutments and their clinical applications.
• Demonstrate appropriate selection of abutments based on specific orthodontic treatment goals.
• Discuss conventional and digital methods for transferring miniscrew position to the laboratory.
• Explain strategies to improve accuracy and communication between the clinician and the laboratory.

Abstract

Managing complex malocclusions with clear aligners requires advanced treatment planning, precise biomechanics, and effective use of auxiliaries. This lecture will explore the management of high-difficulty cases, including deep bites, open bites, severe crowding, and anteroposterior discrepancies. Participants will gain practical insights into digital treatment planning, staging strategies, biomechanical control, and the use of attachments, elastics, and bite ramps to improve treatment predictability and clinical outcomes. 

Learning Objectives

• Discuss the key clinical challenges in treating complex malocclusions with clear aligners (deep bite, open bite, severe crowding, and AP discrepancies).
• Explain the biomechanical principles and staging strategies required to achieve predictable outcomes in high-difficulty cases.
• Demonstrate advanced digital treatment planning approaches to optimise complex case execution and outcomes.
• Discuss the role and effective use of auxiliaries (e.g., attachments, elastics, bite ramps) in enhancing control and treatment efficiency.
• Demonstrate how to evaluate and refine treatment plans using clinical case analysis and troubleshooting strategies.

Abstract

Embark on a Comprehensive Two-Day Journey into Skeletal Anchorage in Orthodontics.

This immersive two-day course offers an exploration of skeletal anchorage, blending theoretical insights with hands-on practical applications. Participants will delve into the world of temporary anchorage devices (TADs), with a particular focus on mini-implants, comprehending their attributes and leveraging their advantages in orthodontic treatments. 

The course begins by laying a strong foundation with an in-depth introduction to TADs, encompassing insertion techniques and sites. Participants will navigate through clinical workflows, witnessing the transformative shift from analog to digital methodologies that significantly enhance the precision and efficacy of skeletal anchorage. 

Covering applications in both the upper jaw and mandible, the program sheds light on diverse utilities and advantages. The engaging lectures explore fundamental techniques such as distalization, mesialization, molar intrusion, management of impacted teeth, rapid maxillary expansion (RME), and Class III therapy. Moreover, participants will discover innovative ways to merge clear aligners with skeletal anchorage, expanding the horizons of clear aligner treatments. 

The course's practical segment immerses attendees in interactive modules featuring hands-on exercises. These exercises focus on various insertion techniques and the application of mini-implant-supported mechanics, transforming theoretical understanding into practical expertise. 

The course concludes with clinical tips for potential problems and a final discussion to provide participants with an opportunity for a comprehensive review and to address any remaining questions. 

Orthodontic professionals attending this comprehensive course will emerge equipped with the knowledge and practical skills necessary to proficiently implement skeletal anchorage. This newfound expertise will elevate treatment outcomes and broaden the spectrum of treatment options available to them in orthodontic practice. 

Learning Objectives

• Comprehensive understanding of TADs: Learn about the characteristics and advantages of temporary anchorage devices (TADs) in orthodontic treatments, merging theoretical knowledge and practical applications. 
• Proficiency in TAD insertion techniques: Attain expertise in diverse TAD insertion techniques, covering dependable insertion sites crucial for successful orthodontic interventions, through theoretical learning and hands-on practice. 
• Integration into clinical workflow: Develop a comprehensive approach to integrate TADs seamlessly into clinical workflows, encompassing both analog and digital methodologies, ensuring optimized treatment efficacy. 
• Practical application of skeletal anchorage: Explore practical applications of skeletal anchorage in the upper and lower jaw, gaining immediate integration skills applicable in diverse orthodontic scenarios encountered in daily practice. 
• Combination of TADs with other appliances: Learn the strategic integration of TADs with various appliances, with a specific emphasis on their synergy and effective utilization in combination with clear aligners for managing complex orthodontic cases. 
• Mastering mini-implant supported mechanics: Acquire mastery in fabricating and applying mini-implant supported mechanics, across a spectrum of indications, ensuring effective treatment outcomes and versatility in orthodontic solutions. 

Agenda Day 1

Agenda Day 2

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