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Useful Sessions

1

Dentistry is the branch of medicine that focuses on the diagnosis, prevention, and treatment of diseases and conditions of the oral cavity, including teeth, gums, and jaw. It encompasses a variety of practices from routine dental checkups to complex surgical procedures. The goal is to maintain oral health and function, improving patients overall well-being.

Preventive Dentistry
Restorative Dentistry
Oral Surgery
Orthodontics
Pediatric Dentistry
Prosthodontics
Periodontics
Cosmetic Dentistry

2

Dental Science integrates various scientific disciplines to understand oral health, disease mechanisms, and treatment methodologies. It encompasses the examination of dental tissues, oral microbiology, and the advancement of innovative dental materials and methodologies. This field provides the foundational knowledge necessary for clinical practice and research.

Oral Biology
Dental Pharmacology
Oral Pathology
Dental Radiology
Oral Physiology
Dental Epidemiology

3

This subject pertains to the examination of the structure, shape, and form of teeth along with the adjacent oral tissues. It helps understand tooth development, arrangement, and function. Knowledge of dental anatomy is essential for diagnosis, restorative work, and orthodontic treatment.

Tooth Development
Tooth Types and Classification
Crown and Root Morphology
Occlusion and Bite Patterns
Jaw Bone Anatomy
Oral Soft Tissue Anatomy

4

Dental Materials Science studies the properties, composition, and behavior of materials used in dental treatments. It involves evaluating restorative materials like composites, ceramics, and metals for safety, durability, and compatibility with oral tissues. Innovations in this field improve treatment outcomes and patient comfort.

Amalgam and Composite Resins
Dental Ceramics
Dental Cements and Adhesives
Biocompatibility of Dental Materials
Mechanical Properties of Materials
Nanomaterials in Dentistry

5

Cariology focuses on dental caries (tooth decay), its causes, progression, and prevention. It studies the interaction between oral bacteria, diet, saliva, and tooth structure. Understanding cariology aids in developing strategies for early diagnosis and minimally invasive treatments.

Pathogenesis of Dental Caries
Role of Oral Microflora
Risk Factors and Prevention
Remineralization Techniques
Diagnostic Tools for Caries
Fluoride Therapy

6

Salivary Diagnostics explores the use of saliva as a non-invasive diagnostic tool for detecting oral and systemic diseases. Saliva contains biomarkers that can indicate infection, inflammation, and other pathological conditions. This field is growing rapidly with advances in molecular biology.

Biomarkers in Saliva
Saliva Collection Methods
Salivary Proteomics and Genomics
Diagnostic Devices and Sensors
Applications in Oral Cancer Detection
Monitoring Systemic Diseases

7

Dental Neuroscience studies the neural mechanisms underlying oral sensory perception, pain, and motor control. It investigates how nerves in the oral cavity respond to stimuli and how pain is processed. This knowledge improves pain management and treatment of neurological disorders affecting oral health.

Oral Pain Mechanisms
Neural Pathways in Oral Cavity
Trigeminal Nerve Function
Neurogenic Inflammation
Sensory Receptors in Teeth and Gums
Neural Control of Mastication

8

Regenerative Dental Science focuses on repairing or regenerating damaged dental tissues using biological approaches such as stem cells, growth factors, and tissue engineering.

Stem Cell Therapy in Dentistry
Tissue Engineering for Dental Pulp
Biomaterials for Regeneration
Gene Therapy in Dentistry
Regeneration of Periodontal Tissues
Clinical Applications of Regenerative Dentistry

9

This area studies the biology of dental pulp, the soft tissue inside teeth, and the clinical specialty of endodontics that treats pulp diseases. It includes diagnosis and treatment of pulp infections, root canal therapy, and preservation of tooth vitality.

Structure and Function of Dental Pulp
Pathophysiology of Pulp Diseases
Root Canal Anatomy
Endodontic Treatment Techniques
Pulp Regeneration
Pain Management in Endodontics

10

Craniofacial Biology examines the development, growth, and disorders associated with the skull, face, and jaws. It combines genetics, embryology, and anatomy to understand normal and abnormal craniofacial structures, which is crucial for orthodontics and reconstructive surgery.

Craniofacial Development
Genetic Disorders Affecting Craniofacial Growth
Growth Patterns of Jaws and Facial Bones
Embryology of Oral and Facial Structures
Orthodontic Implications of Growth

11

Evidence-Based Dentistry (EBD) integrates clinical expertise with the best available research evidence and patient values for decision-making. EBD ensures dental treatments are effective, safe, and cost-efficient, improving patient outcomes and standardizing care.

Clinical Research Methods
Systematic Reviews and Meta-Analyses
Critical Appraisal of Dental Literature
Guidelines and Protocol Development
Patient-Centered Care
Implementation of EBD in Practice

12

Biomechanics in Dentistry examines the mechanical forces acting on teeth, jaws, and dental materials. It helps in designing prosthetics, orthodontic appliances, and implants by understanding stress distribution, load resistance, and tissue response.

Forces in Mastication
Stress Analysis of Dental Materials
Orthodontic Force Application
Implant Biomechanics
Jaw Movement Mechanics
Finite Element Analysis in Dentistry

13

This topic explores the complex community of microorganisms in the oral cavity and their interaction with the host immune system. It studies how oral microbes contribute to health and disease, including caries, periodontitis, and systemic conditions.

Composition of Oral Microbiome
Host-Microbe Interactions
Oral Immune Responses
Biofilm Formation
Microbial Dysbiosis and Disease
Immunotherapy in Oral Diseases

14

Infection Biology in Dental Settings focuses on the transmission, prevention, and control of infectious agents in dental clinics. It highlights sterilization, cross-contamination risks, and safety protocols to protect patients and healthcare workers.

Common Oral Pathogens
Infection Control Practices
Sterilization and Disinfection
Occupational Exposure Risks
Antimicrobial Resistance
Guidelines for Dental Clinics

History of dentistry

2025-06-04 - 2025-06

dentistry, the profession concerned with the prevention and treatment of oral disease, including diseases of the teeth and supporting structures and diseases of the soft tissues of the mouth. Dentistry also encompasses the treatment and correction of malformation of the jaws, misalignment of the teeth, and birth anomalies of the oral cavity such as cleft palate. In addition to general practice, dentistry includes many specialties and subspecialties, including orthodontics and dental orthopedics, pediatric dentistry, periodontics, prosthodontics, oral and maxillofacial surgery, oral and maxillofacial pathology, endodontics, public health dentistry, and oral and maxillofacial radiology.
Early dentistry
Dentistry, in some form, has been practiced since ancient times. For example, Egyptian skulls dating from 2900 to 2750 BCE contain evidence of small holes in the jaw in the vicinity of a tooth’s roots. Such holes are believed to have been drilled to drain abscesses. In addition, accounts of dental treatment appear in Egyptian scrolls dating from 1500 BCE. It is thought that the Egyptians practiced oral surgery perhaps as early as 2500 BCE, although evidence for this is minimal. An early attempt at tooth replacement dates to Phoenicia (modern Lebanon) around 600 BCE, where missing teeth were replaced with animal teeth and were bound into place with cord.
True restorative dentistry began with the Etruscans, who lived in the area of what is today central and northern Italy. Numerous dental bridges and partial dentures of gold have been found in Etruscan tombs, which date to about 500 BCE. The Romans, who conquered the Etruscans, adopted Etruscan culture, and dentistry became a regular part of Roman medical practice. The Greeks also practiced some form of oral medicine, including tooth extractions, from the time of Hippocrates, around 400 BCE.
In the Eastern world, dentistry had a totally different history. There is evidence that the early Chinese practiced some restorative dentistry as early as the year 200 BCE, using silver amalgam as fillings. Oral medicine was part of the regular medical practice in other early Asian civilizations, such as those in India and Japan.
Because of the proscription in the Qurʾan, the sacred scripture of Islam, against mutilating the body, surgery was not practiced in Islamic countries. Instead, reliance was placed upon healing through the use of herbs and medicines; preventive dentistry through strict adherence to oral hygiene became paramount. The writings of early Arabic physicians, such as Avicenna and Abū al-Qāsim, show that scaling and cleaning of teeth were practiced. Extractions were rare and were performed only when a tooth had been loosened.
Development of dentistry in Europe
With the demise of the western Roman Empire about the year 475 CE, medicine in Europe declined into a torpor that would last for almost a thousand years. About the only places where medicine or surgery was practiced were monasteries, and monks were aided in their surgical ministrations by the local barbers, who went to the monasteries to cut the monks’ hair and shave the monks’ beards. In 1163 a church council at Tours, France, ordered that henceforth no monks or priests were to practice any surgery, since it was felt that the shedding of blood was incompatible with the holy office of the clergy. Thus, the only people who had any rudimentary knowledge of surgery were the barbers, and they stepped into the breach, calling themselves barber-surgeons. They practiced simple dentistry, including extractions and cleaning of teeth. In the 1600s a number of barber-surgeons began restricting their activity to surgery and dropped the word “barber,” simply calling themselves surgeons. In England, Henry VIII granted a charter to a combined group of barbers and surgeons, which ultimately evolved into the Royal College of Surgeons.
In 1530 the first book devoted entirely to dentistry was published in Germany and was written in German instead of Latin. It addressed barber-surgeons and surgeons, who treated the mouth, rather than university-trained physicians, who ignored all diseases of the teeth. Subsequent to this publication, other surgeons published texts incorporating aspects of dental treatment.
By the 1700s in France, a number of surgeons were restricting their practice to dentistry, and in 1728 a leading Parisian surgeon, Pierre Fauchard, gathered together all that was then known about dentistry in a monumental book, The Surgeon Dentist, or Treatise on the Teeth. In it he discussed and described all facets of diagnosis and treatment of dental diseases, including orthodontics, prosthetics, periodontal diseases, and oral surgery. Fauchard effectively separated dentistry from the larger field of surgery and thus established dentistry as its own profession. Fauchard is known today as the father of modern dentistry. Other surgeons in Germany and France, who made notable contributions to the field of dentistry, readily followed his lead.
English dentistry did not advance as far as French dentistry in the 18th century. The guild that had united the barbers and surgeons was dissolved in 1745, with the surgeons going their own way. Some barbers continued their dental ministrations and were designated “tooth drawers.” A second group, as a result of the French influence, referred to themselves as “dentists,” while those who did all manner of dentistry were called “operators for the teeth.” The first English book on dentistry, The Operator for the Teeth, by Englishman Charles Allen, was published in 1685; however, no other works on English dentistry were published until Thomas Berdmore, dentist to King George III, published his treatise on dental disorders and deformities, in 1768. In 1771 English surgeon John Hunter, famed as the father of modern surgery, published The Natural History of the Human Teeth, an outstanding text on dental anatomy. Hunter also pioneered the transplantation of teeth from one individual to another, and, because of his tremendous reputation, this practice was widely adopted. Although tooth transplantation between individuals did not prove successful, it was nevertheless the first attempt to transplant human tissue from one person to another. In 1806 English dentist Joseph Fox, who served on the staff of Guy’s Hospital in London, offered the first observations on what is today recognized as the “rejection phenomenon” of transplants.
Dentistry in 18th- and 19th-century America
The beginnings of dentistry in the United States came in the 1630s with the settlers of the Massachusetts Bay Colony, who were accompanied by barber-surgeons. One of the first dentists in America was English surgeon and dentist John Baker, who settled in Boston in 1763. Other immigrants to follow included Robert Wooffendale, who emigrated from England in 1766 and practiced in New York City, and Jacques Gardette, who moved from France in 1778, eventually settling in Philadelphia. In early colonial America, dental care was also rendered by artisans such as ivory turners. One such artisan was Isaac Greenwood, who began practicing dentistry in 1779 and is considered to be the first American-born dentist. Four of his six sons became dentists. The most prominent, John Greenwood, served as George Washington’s dentist. Other craftsmen performed a variety of dental services, the most well known being Paul Revere, who practiced dentistry for seven years in Boston. The first book on dentistry to be published in the United States appeared in 1801 and was written by Richard Cortland Skinner, a young immigrant from England.
By the first quarter of the 19th century, the United States had become the leading centre in the world for dental developments. From 1839 to 1840 three major events in dental practice facilitated the establishment of dentistry as a true profession. In 1839 the first dental journal, the American Journal of Dental Science, was launched; in 1840 the first dental school, the Baltimore College of Dental Surgery, was established; and in 1840 the first national society of dentists, the American Society of Dental Surgeons, was founded in New York City.
Horace Wells
Great new advances in the field came about very quickly at this time. In 1844 American dentist Horace Wells discovered the anesthetic properties of nitrous oxide, which he promptly began using while performing tooth extractions. In 1846 another American dentist, William Thomas Green Morton of Boston, successfully demonstrated in public the effectiveness of ether anesthesia. Because Wells’s own public demonstration prior to Morton’s was unsuccessful, a controversy erupted over who deserved credit for the remarkable discovery of anesthesia. However, the two major health organizations in the United States—the American Dental Association and the American Medical Association—voted in favour of Horace Wells in 1864 and 1870, respectively.
anesthesia.
Numerous advances in equipment, materials, and techniques followed one upon the other. In 1864 vulcanized rubber was introduced as a substitute for difficult and costly gold dentures, allowing dentists to supply dentures at a lower cost. The introduction of a foot-treadle drill in 1871 by American dentist James Beall Morrison of Missouri supplanted awkward handheld drills and gave dentists the ability to create intricate and aesthetic restorations.
New dental schools were being established in many parts of the nation. The first dental school to be affiliated with a university was that at Harvard University in 1867. Nevertheless, most dentists were still being trained by a system of preceptorship with an established dentist. The beginning of licensure in the United States came about in 1868, with the states of New York, Ohio, and Kentucky leading the way.
In 1890 American dentist Willoughby Dayton Miller published The Micro-organisms of the Human Mouth, in which he proposed the theory that dental caries were the result of bacterial activity. Miller’s publication led to a tremendous wave of interest in oral hygiene. In 1913 American dentist Alfred C. Fones opened the Fones Clinic for Dental Hygienists in Bridgeport, Conn., the first establishment for formal training, at the college level, of dental hygienists.
Dentistry in 19th-century Europe
dentures
In the 19th century in Europe, several technological developments were taking place. Chief among these developments was the introduction of porcelain teeth for dentures by Italian dentist Giuseppangelo Fonzi. Fonzi’s porcelain teeth provided an appealing alternative to traditional tooth replacement with the repugnant teeth from corpses.
In Britain, dentistry was also coming of age. In 1856 English dentist Sir John Tomes led the formation of the first dental organization in England, the Odontological Society. It was through the activity of this group that the Royal Dental Hospital of London was established in 1858. In opposition to the Odontological Society, a group of dental professionals formed the College of Dentists of England in 1857, seeking independence from the Royal College of Surgeons, which influenced the proceedings of the Odontological Society. The College of Dentists of England established the Metropolitan School of Dental Science, the forerunner of the University College Hospital Dental School. In 1878 the passage of the Dentists Act, which put dentistry under the General Medical Council, led to the authorization and formation of the Dental Register, a precursor to ultimate licensure that prescribed a curriculum for the training of dentists. This system remained in effect until 1921, when new laws provided for stricter requirements for examination and licensure. In 1880 the British Dental Association was established; it remains the most important dental organization in the United Kingdom.
Advances in dentistry in the 20th century
teeth whitening A dentist treating a patient's teeth with ultraviolet light to whiten them.
In 20th-century America, advances occurred in all aspects of dentistry. Frederick McKay, a young American dentist practicing in Colorado, observed a condition of mottling of his patients’ teeth, in which there was an almost total absence of decay. Following years of research, McKay and others were able to show that this was due to the presence in the drinking water of high amounts of naturally occurring fluoride, which protects teeth against decay. As a result, public health officials established measures to add fluoride to public water supplies in communities around the United States. Since fluoridation was initiated in 1945, dental caries in children have decreased by more than 50 percent.
In 1896 American dentist Charles Edmund Kells introduced X-ray technology in dentistry and thereby ushered in an era of accurate diagnosis of dental ailments. In addition, in the late 19th and early 20th centuries, American dental pathologist Greene Vardiman Black (sometimes called the father of modern dentistry, although this title is shared with Fauchard) standardized the instruments and restorative materials used by dentists. In 1903 American dentist Charles Land introduced the use of porcelain in crowns, which led to a new era of aesthetic dentistry. In 1907 American dentist William Taggart introduced a precision casting machine that allowed dentists to create gold restorations of great accuracy with a minimum of tooth removal. In 1913 American dentist Edwin J. Greenfield demonstrated the first modern and truly functional dental implant, paving the way for today’s highly successful implant dentistry. The introduction in 1953 of the first commercially successful water-driven turbine drill, developed by American dentist Robert Nelson, led the way to the high-speed dental drill. The Borden air-turbine drill, introduced in 1957 and today used universally, reaches speeds of up to 400,000 revolutions per minute and allows for greater accuracy and control by the dentist and greater comfort of the patient.
Numerous research projects into dental diseases and their treatment are carried out at the U.S. National Institute of Dental and Craniofacial Research in Bethesda, Md., a component of the National Institutes of Health. The work done at such institutes promises a future in which new materials and new methods of treatment greatly diminish oral and dental disease.
Malvin E. Ring
The practice of dentistry
Licensure requirements
The practice of dentistry is well controlled, and, in all countries of the world in which dentistry is practiced, there is a licensing requirement. The licensing authority may be the government or national dental organizations.
Canada
In Canada each province has its own licensing authority. This can be a college, such as the Royal College of Dental Surgeons of Ontario, or an association, such as the Manitoba Dental Association. There is also a national authority, the National Dental Examining Board of Canada.
The university degree (Doctor of Dental Surgery or Doctor of Dental Medicine) does not in itself entitle the holder to practice but is an academic qualification for presentation to the licensing board under whose jurisdiction the holder wants to obtain a license to practice. The regulations of the provincial licensing boards vary but usually require an examination for licensing.
United States
Licensing authority in the United States is vested in state boards of dental examiners, most of which require an examination. Most states require U.S. citizenship as a prerequisite. Some states require noncitizens to submit the declaration of intent to become a citizen or the first papers as a requirement for admission to the dental licensure examination; a few do not require citizenship for such admission.
Nationals with foreign diplomas may be admitted to practice if their diplomas were issued by a school approved by the American Dental Association and if they pass the state licensure examination. Most states, however, require that dentists from foreign countries (generally with the exception of Canada) attend an accredited dental school in the United States for at least two years.
Europe
The European Union (EU) has established policies that allow physicians and dentists to move freely and practice within any of the member countries. For this to be acceptable there has had to be mutual recognition of dental degrees and comparable forms of qualification. The EU has directives that set out the training requirements for dental education in the member states. This has created no difficulties for most European countries, where dentistry has long been recognized as a specialty in its own right. The Council of European Dentists oversees the development and execution of policies and initiatives that influence dental practice in Europe.
Permission to practice in the United Kingdom is granted by the General Dental Council (GDC) to those holding (1) a degree or diploma in dentistry or dental surgery conferred in Great Britain or Northern Ireland, (2) a degree or diploma in dentistry or dental surgery granted elsewhere that has been recognized by the GDC, or (3) a degree or diploma approved by the GDC, provided that these graduates have passed the statutory examination written under arrangements made by the GDC.
Dentists in Germany must hold a dental surgeon’s diploma, which authorizes private practice without further examination. They must be registered by local dental boards and by health authorities.
In Italy a diploma in dentistry, which allows the use of the title of specialist in diseases of the mouth, teeth, and jaws, constitutes a license to practice. Holders of the diploma of Doctor of Medicine have passed examinations in dentistry and for this reason may also practice dentistry but do not have the specialist title.
Japan
Since about 1903 Japanese dentistry has been mainly patterned after that practiced throughout the United States. Those wanting to practice dentistry or dental surgery must be recognized by the national government. Applicants for registration must pass the national examination for dentists and obtain a license to practice. These requirements must also be fulfilled by registered medical practitioners wanting to practice dentistry, by Japanese citizens, and by foreigners who have qualified in Japan.

Rooted in care and community, DDS grad finds her path

2025-06-04 - 2025-06

Delainey Mattern was in Grade 9 when a routine dental appointment turned into something more.

Invited to shadow the dentist, a family friend, she got a firsthand look at the power of connection in health care.

“I wasn’t sure what dentistry looked like on a daily basis,” said the Edmonton-born graduate, who always enjoyed science and working with her hands. “But as I looked more into the dental profession, I was hooked.”

Now, as she graduates with a Doctor of Dental Surgery from Schulich Medicine & Dentistry, Mattern will be joining that same practice part-time.

What sparked her interest in Grade 9 has become a meaningful career, especially through Schulich Dentistry’s Community Service Learning program, which places students in clinics serving patients with limited access to care.

“Yes, dentistry is the way I imagined, but it’s also more,” said Mattern. “I knew dentists helped people, but I didn’t realize how much we could do as students to help people. That was really rewarding.”

One moment stands out: A patient who had long avoided the dentist and was terrified of treatment. By the end of the appointment, she felt empowered to continue care and was happy with her smile.

“I didn’t expect to be equipped with the skills to change someone’s life like that,” said Mattern, who, along with fellow students, had many such opportunities to help patients in the School's dental clinics.

Mattern is also leaning into her Métis identity, a connection she learned about through a family member on her mother’s side who was tracing the family’s history. Through connections both at the University of Alberta during her undergraduate years and during her time at Schulich Dentistry, Mattern has learned much more about her identity.

“It was overwhelming at first; there were a lot of emotions. I didn’t know where to go. But it’s been very cool to connect with my heritage,” she said.

With this new connection, Mattern will look for opportunities to provide care to Indigenous communities in the Northwest Territories going forward, returning the acceptance and support she has received.

“The Métis community has been so welcoming as my family was discovering our heritage and learning about our culture,” said Mattern. “I’m grateful to be able to practise dentistry and continue to give back and reconnect with my culture.”

National fluoride ban would substantially increase children's tooth decay and dental costs, modeling study finds

2025-05-30 - 2025-05

Fluoride has been added to public water systems in the United States since 1945 to strengthen tooth enamel and fight off bacteria, ultimately reducing tooth decay. Mass General Brigham researchers developed a model to estimate dental health outcomes for children if the United States were to ban fluoridation of public water. The new study, published in JAMA Health Forum, found that banning fluoride would substantially increase dental decay and costs particularly for publicly insured and uninsured children.
"Fluoride replaces weaker ions within tooth enamel, making it stronger and less susceptible to tooth decay caused by bacteria," said senior author Lisa Simon MD, DMD, Division of General Internal Medicine at Brigham and Women's Hospital.
"There's strong evidence from other countries and cities, such as Calgary in Canada, showing that when fluoride is eliminated, dental disease increases. Our study offers a window into what would happen in the United States if water fluoridation ceased."
Simon and the research team focused on children for the study, because fluoride strengthens teeth during development, and more robust data links fluoridated water to oral health in this age group.
The study used detailed oral health and water fluoridation data collected from 8,484 children (ages 0-19, 49% girls) in the nationally representative National Health and Nutrition Examination Survey (NHANES). Using this dataset, the researchers developed a microsimulation model to see how banning fluoride from drinking water would impact oral health, quality of life and dental care costs.
The researchers simulated two scenarios over 5- and 10-year periods, which align with policy planning horizons. First, maintaining current fluoride levels, and second, eliminating the addition of fluoride to public water.
"Using a simulation model to track the progression of diseases in current populations, we estimated the impact of removing fluoride on the risk of tooth decay and the related dental care costs, including treatment for decay and complications from delayed treatment.
"We ran the simulation 1,000 times to see how different factors could affect the results. This approach helps ensure that our predictions are more reliable and reflective of real-world variability," said first author Sung Eun Choi, Ph.D., assistant professor of Oral Health Policy & Epidemiology at Harvard School of Dental Medicine.
The researchers found that eliminating fluoride increased the total number of decayed teeth by 7.5 percentage points, or 25.4 million more teeth with tooth decay over five years (equivalent to a tooth for one out of every three American children). The number of fluorosis cases-a discoloring of tooth enamel due to excessive fluoride intake-decreased by 0.2 million. They also estimated a cost of $9.8 billion in additional dental care costs over five years, which rose to $19.4 billion after 10 years.
"Most of the increased cost could be attributed to publicly insured children, meaning it would be a direct public health cost," said Simon.
The study did not model cognitive effects from fluoride exposure as current levels of fluoride in public water are not associated with worse neurobehavioral outcomes. The researchers note that their model demonstrates meaningful, ongoing benefit from fluoride at safe levels currently recommended by the Environmental Protection Agency, the National Toxicity Program, and the Centers for Disease Control and Prevention.
"We know fluoride works. We're able to show just how much it works for most communities and how much people stand to lose if we get rid of it," said Simon.

Minamata Convention: Study proposes 'leapfrogging' implementation of children's amendment

2025-05-27 - 2025-05

A recently published article has proposed a unique strategy on oral health policy as a cost-effective strategy for African countries to achieve mercury-free dentistry.
Tagged "leapfrogging", the strategy, according to the authors, could also be adopted by developed economies with underserved communities as well as developed economies who desire to save costs.
The unique, cost-effective strategy is to "leapfrog" the implementation of the children's amendment to the Minamata Convention on Mercury (COP 4.2) in Africa and other developing economies.
According to the paper, titled "Update of Oral Health Policy to Implement the Children's Amendment to the Minamata Convention on Mercury (COP 4.2)", the cornerstones of the strategy include update of dental training institutions curricula, review of health insurance policies, integration of the principles of minimum intervention dentistry (MID) into oral health policies with an integration-prevention-promotion-partnerships ('II-PPP') framework with the WHO Basic Package for Oral Care.
"We hope this approach will enhance the speedy implementation of the children's amendment particularly in Africa and other developing economies with poor infrastructure for managing waste," submitted Professor Godwin Arotiba, the lead author.
The article was published in the Journal of Oral Health & Dental Science.
The founder of Dentists for a Mercury-Free Africa and the former Dean of Lagos University Teaching Hospital (LUTH), Professor Arotiba engaged with several Nigerian professors from his and three other top-notch universities, plus NGO leaders in Nigeria and Cameroun, to produce the landmark paper.
"We have been at this for so long now since 2014 to date. We need to leapfrog to mercury free 21st century dentistry by 2030 in Africa, Other developing economies and developed economies with underserved communities, plus developed economies who desire to save costs as well," said Aritoba.
The paper concluded: "'Leapfrogging' to mercury free 21st century dentistry is a feasible, desirable and achievable strategy to adopt for Africa and other developing economies with poor infrastructure for managing wastes.
"It can also be adopted by developed economies with underserved communities as well as developed economies who desire to save costs. The top priorities should include update of dental training institution's curricula; retraining of general dental practitioners through workshops, conferences, and webinars; update of health insurance policy to favour mercury free restoratives and update of oral health policies with the 'II-PPP-BPOC' framework.
"Poverty should not be an excuse to continue the use of dental amalgam (45-55% mercury) in under-served communities and further compromise their well-being. This is a very important consideration in Sub-Saharan Africa where UNEP and WHO have reported a higher percentage (35%) of diseases traced to environmental pollution compared to 25% world-wide."
The Minamata Convention on Mercury is an international treaty designed to protect human health and the environment from anthropogenic emissions and releases of mercury and mercury compounds. It contains, in support of this objective, provisions that relate to the entire life cycle of mercury, including controls and reductions across a range of products, processes and industries where mercury is used, released or emitted.
The Children's Amendment to protect children from the harm of mercury containing fillings entered into force on September 28, 2023, and became mandatory for Parties to the Minamata Convention.
Henceforth, all the 152 nations who are Parties to the treaty must take affirmative steps - ranging from recommendations to complete abolition - to end amalgam use for children, pregnant women, and breastfeeding mothers.

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History of dentistry

Rooted in care and community, DDS grad finds her path

National fluoride ban would substantially increase children's tooth decay and dental costs, modeling study finds

Minamata Convention: Study proposes 'leapfrogging' implementation of children's amendment

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Welcome Message

About Dentistry 2025

Useful Sessions

1 Dentistry

2 Dental Science

3 Dental Anatomy & Morphology

4 Dental Materials Science

5 Dental Caries and Cariology

6 Salivary Diagnostics

7 Dental Neuroscience

8 Regenerative Dental Science

9 Pulp Biology and Endodontics

10 Craniofacial Biology & Growth

11 Evidence-Based Dentistry

12 Biomechanics in Dentistry

13 Oral Microbiome and Immunology

14 Infection Biology in Dental Settings

Who should Attend?

Why to Attend?

Why to Register?

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Market Analysis

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History of dentistry

Rooted in care and community, DDS grad finds her path

National fluoride ban would substantially increase children's tooth decay and dental costs, modeling study finds

Minamata Convention: Study proposes 'leapfrogging' implementation of children's amendment

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