The Role of Vibration Devices in Faster Tooth Movement

The Role of Vibration Devices in Faster Tooth Movement

**Early Intervention with Invisalign First for Kids**

The use of vibration devices in orthodontics has been a topic of increasing interest, especially in recent years, as they offer a potential means to accelerate tooth movement and reduce treatment time. Devices like AcceleDent and VPro have been developed to apply gentle vibrations to the teeth and surrounding bone, which can stimulate cellular activity and accelerate the body's natural bone remodeling processes. This technology is based on the osteogenic orthodontics method, where vibrational forces are used to facilitate faster tooth movement.


For children undergoing orthodontic treatment, these devices can be especially beneficial. By reducing discomfort and potentially shortening treatment time, vibration devices can make the orthodontic process more comfortable and efficient. Proper oral hygiene is crucial during orthodontic treatment Children's braces treatment mouth. AcceleDent, for example, uses SoftPulse Technology to deliver micro-vibrations that have been shown to accelerate tooth movement by 38% to 50% in clinical trials. It is designed to be used for 20 minutes daily and is safe for children, as it doesn't cause discomfort and is easy to use.


VPro, another high-frequency vibration device, is used for just five minutes a day and can also reduce treatment time by up to 50%. It is designed to be comfortable and easy to incorporate into daily routine, enhancing the effectiveness of braces or clear aligners without additional food restrictions or oral hygiene steps.


The benefits of these devices are not only in accelerating treatment but also in reducing the discomfort associated with orthodontic treatment. By enhancing bone remodeling, they facilitate faster tooth movement, which can be especially appealing for children who may find extended treatment periods less appealing.


In addition to their effectiveness, these devices are also convenient and travel-friendly, which is an important factor for children and their daily life. Overall, vibration devices like AcceleDent and VPro offer a significant potential for improving the orthodontic treatment process for children, combining effectiveness with increased patient acceptance.

The Role of Vibration Devices in Faster Tooth Movement


Vibration devices have become an exciting addition to orthodontic treatments, with the AcceleDent technology at the forefront. This innovative system uses SoftPulse Technology, which delivers gentle micro-vibrations to the teeth and surrounding bone. By harnessing these vibrations, AcceleDent can potentially increase tooth movement speed by 38% to 50% and reduce discomfort during orthodontic treatment.


AcceleDent is not a standalone treatment but rather a supplement to traditional braces or clear aligners. It is designed to be used for 20 minutes daily, during which it releases tiny vibrations that help stimulate cellular activity in the bone surrounding the teeth. This stimulation accelerates the natural bone remodeling process, allowing teeth to move more quickly and with less discomfort.


The benefits of using vibration devices like AcceleDent are significant. Patients can experience a more efficient orthodontic process, reducing the overall treatment time. This is especially appealing for patients who are undergoing long or comprehensive orthodontic treatments. The technology is also safe and has been clinically proven to be effective, with many dentists and orthodontists across the U.S. supporting it.


Vibration devices, in addition to AcceleDent, include other types like the VPro system. These devices, while different in their specific use and duration, all work on the same underlying concept of using vibrations to enhance tooth movement. For example, the VPro device is used for just five minutes daily and is also designed to accelerate orthodontic treatment when used with braces or aligners.


The use of vibration devices in orthodontics is a step in the right directions for patients who want faster results without the need for more forceful or traditional methods. By providing a more comfortable and efficient alternative, these devices are not only reducing treatment times but also increasing patient experience and overall treatment effectiveness.

**The HealthyStart System**

The use of vibration technology in orthodontics has been a topic of increasing research, with a focus on accelerating tooth movement. One of the devices that has been developed for this purpose is the AcceleDent Aura, which is designed to be safe and effective for both adults and children. For children, the AcceleDent Aura offers several clinical advantages. It is a hands-free device that can be used for just 20 minutes each day, which is appealing to children as it allows them to go about their daily activities while using it. This comfort and simplicity are significant advantages, as it can be used while reading, watching television, or doing school work, which helps in ensuring that children can follow the treatment without much discomfort or additional time out of their daily activities.


The AcceleDent Aura uses SoftPulse Technology to deliver gentle micro-vibrations to the teeth and surrounding bone. These micro-vibrations have been shown in clinical trials to accelerate tooth movement by 38% to 50%. This acceleration can potentially reduce the overall treatment time, which is beneficial for children who may have to use orthodontic appliances for several years. The device is also FDA-cleared as a Class II medical device, ensuring it is safe for use.


While there is some evidence supporting the effectiveness of AcceleDent in accelerating tooth movement, other studies have found no significant difference between using vibrating devices and conventional methods. However, for children, the comfort and reduced treatment time associated with devices like AcceleDent Aura can be a significant clinical and quality of life boon. The technology is not only safe but also helps in reducing discomfort associated with orthodontic treatment, which is a common issue for many children undergoing orthodontic treatment. Overall, the use of vibration devices like AcceleDent Aura offers a potentially more comfortable and faster orthodontic treatment for children, though more comprehensive research is needed to further assess their effectiveness.

**The HealthyStart System**

This non-invasive approach targets the natural development of children's teeth and jaw, using soft dental appliances to align teeth and address breathing issues, reducing the need for more invasive treatments.

The application of vibrations in orthodontic treatment has been a subject of increasing research and clinical application, with a focus on accelerating tooth movement and potentially shortening treatment duration. This innovative use of vibration devices is based on the biological process of bone remodeling, which is a natural process where old bone is resorbed and new bone is formed. By stimulating this process, vibrations can enhance the rate at which teeth move into their desired positions.


Vibration devices, like the VPro, work by applying gentle vibrational forces to the teeth and surrounding bone. These forces stimulate cellular activity, leading to faster bone remodeling and, as a result, quicker tooth movement. When used as a supplement to traditional orthodontic treatments, these devices can reduce treatment time by up to 50 percent. The VPro, for example, requires only five minutes of daily use and is comfortable to wear, providing a convenient and efficient addition to orthodontic treatment.


The scientific foundation of vibration in orthodontics involves osteogenic orthodontics, which involves applying vibrational forces to stimulate bone cells and tissues. This not only aids in accelerating tooth movement but also helps in regenerating bone around dental roots, which can stabilize teeth and reduce the need for retainers after treatment. Research has shown that high-frequency vibrations are more effective in bone formation than low-frequency vibrations, highlighting the potential for vibration to enhance bone health and orthodontic treatment effectiveness.


In addition to accelerating tooth movement, vibration devices can also help relieve discomfort associated with orthodontic treatment. By stimulating the bone and tissues, these devices can make orthodontic adjustments less discomforting, improving the overall patient's treatment process. However, while some studies have shown significant benefits, other research has found that the clinical advantage of using vibrational devices may not be as clear in all aspects of orthodontic treatment, highlighting the need for further investigation.


In recent years, the use of vibration devices has been extended to not just accelerate tooth movement during treatment but also to stabilize teeth after orthodontic treatment. By enhancing bone formation around dental roots, these devices can potentially shorten the time spent wearing retainers, which is often longer than the time spent in braces. This application of vibration technology offers new perspectives on how to make orthodontic treatment more efficient and less time-consuming for patients.


In Conclusion, the application of vibrations in orthodontic treatment is a significant area of research and clinical application. By stimulating bone remodeling and enhancing cellular activity, vibration devices can accelerate tooth movement and potentially shorten treatment duration. With their potential to reduce discomfort and stabilize teeth after treatment, these devices offer a new and innovative way to make orthodontic treatment more efficient and comfortable for patients.

**Myobrace: A No-Braces Approach**

The Role of Vibration Devices in Faster Tooth Movement


Vibration devices have become an innovative adjunct in orthodontic treatments, including aligner therapy, to accelerate tooth movement and reduce overall treatment time. The VPro device is one such example, which uses high-frequency vibration to stimulate bone remodeling and facilitate faster tooth alignment. This technology is designed to be used for just five minutes daily, making it a convenient and efficient way to supplement traditional orthodontic treatments like braces or clear aligners.


The VPro device works by applying gentle vibrations to the teeth and surrounding bone, enhancing cellular activity and accelerating the natural bone remodeling processes. This results in faster tooth movement and can reduce treatment time by up to 50 percent. It also helps in seating aligners more effectively, which can reduce discomfort and the need for additional refinement aligners.


In practice, combining high-frequency vibration devices like VPro with aligner therapy not only shortening treatment duration but also improves patient comfort. The vibrations help in reducing orthodontic discomfort by releasing pain receptors and reducing inflammatory pressure, making the treatment experience more comfortable and predictable.


In the orthodontic treatment space, other vibration systems may offer different application times and methods, but they share the same aim of enhancing tooth movement. For example, low-frequency mechanical vibration devices like AcceleDent have been used to accelerate treatment, though results can vary based on individual biological responses.


The use of vibration devices in orthodontics is a significant step in the technology's progress, providing a more efficient and comfortable alternative to traditional methods. As these devices become more advanced and their benefits more well-acknowleded, they are set to become an important adjunct in orthodontic care, helping patients achieve their desired smile faster and with less discomfort.

Myobrace offers a brace-free solution that corrects poor oral habits, guiding jaw and teeth alignment development in children, promoting natural growth and oral health.

The use of vibration technology in orthodontics has shown significant benefits, especially when combined with clear aligners like Invisalign. This technology, often utilized through small, user-friendly vibration tools, is designed to enhance the effectiveness of orthodontic treatments by facilitating faster tooth movement, reducing discomfort, and improving the seating of aligners. For children undergoing orthodontic treatment, these vibration tools can be especially beneficial.


Vibration technology works by gently providing high-frequency vibrations to the bone and gumline surrounding the teeth. This stimulation helps accelerate the body's natural process of bone remodeling, which is critical for tooth movement during orthodontic treatment. By using these vibration tools for just a short period each day, patients can experience a significant acceleration in tooth alignment. For example, the Propel VPro, a well-acknowledged device in this space, is FDA-approved and has proven to reduce treatment times substantially when used alongside clear aligners or traditional braces.


In the specific application to children, vibration technology can be a key tool in making orthodontic treatment more comfortable and efficient. Children often respond well to orthodontic treatments due to their dental development, and the use of clear aligners like Invisalign can be an effective choice when combined with proper treatment planning and consistent wear. However, the success of aligner treatment, especially in children, hinges on consistent use and proper hygiene habits. Vibration tools can enhance this process by reducing discomfort and making aligner wear more effective, which can be especially appealing for children who may be more averse to traditional braces.


While vibration technology is not a standalone treatment but rather an adjunctive tool, it offers a significant addition to traditional orthodontic methods. By accelerating tooth movement and reducing treatment times, these vibration tools can make orthodontic treatment more appealing and efficient for both children and adults. Ultimately, the combination of Invisalign aligners with vibration technology can provide a more comfortable, faster, and more effective orthodontic treatment experience for patients of all age.

**Comprehensive Orthodontic Solutions**

The use of vibration devices in orthodontics is an innovative approach that could potentially accelerate tooth movement and enhance patient experience. Clinical trials have provided some evidence supporting the effectiveness of these devices, but the results are not consistently clear-cut. For example, some studies have found that high-frequency vibration can effectively speed up orthodontic tooth movement, while others have reported no significant impact on treatment duration when using low-frequency devices like AcceleDent[1][2][3]. These findings highlight the need for further research to better understand both the short and long term effects of vibration technology on tooth movement and patient discomfort.


In the case of AcceleDent, which uses low-frequency mechanical vibration, some studies have reported a significant reduction in treatment time, with a 30% increase in the rate of tooth movement during orthodontic leveling[3]. However, other studies have found no significant difference in treatment duration when using similar devices[2]. High-frequency devices, such as the VPro5, have also been explored, with some studies suggesting they can enhance bone remodeling and accelerate tooth alignment[1][5]. The effectiveness of these devices can vary based on factors such as the frequency of vibration, duration of use, and individual biological responses.


As the technology continues to mature, it is important for clinical trials to focus on diverse aspects of orthodontic treatment, including pain reduction, gene expression, and tissue responses. This comprehensive approach will help to provide a more accurate evaluation of the benefits and potential long term effects of vibration devices. In addition, manufacturers should accumulate non-biased evidence before promoting these products to patients, ensuring that any claims of effectiveness are supported by scientific data[2]. Overall, while vibration technology in orthodontics is promising, further research is necessary to guide its use effectively and to enhance patient care.

Orthodontics
Connecting the arch-wire on brackets with wire
Occupation
Names Orthodontist
Occupation type
Specialty
Activity sectors
Dentistry
Description
Education required
Dental degree, specialty training
Fields of
employment
Private practices, hospitals

Orthodontics[a][b] is a dentistry specialty that addresses the diagnosis, prevention, management, and correction of mal-positioned teeth and jaws, as well as misaligned bite patterns.[2] It may also address the modification of facial growth, known as dentofacial orthopedics.

Abnormal alignment of the teeth and jaws is very common. The approximate worldwide prevalence of malocclusion was as high as 56%.[3] However, conclusive scientific evidence for the health benefits of orthodontic treatment is lacking, although patients with completed treatment have reported a higher quality of life than that of untreated patients undergoing orthodontic treatment.[4][5] The main reason for the prevalence of these malocclusions is diets with less fresh fruit and vegetables and overall softer foods in childhood, causing smaller jaws with less room for the teeth to erupt.[6] Treatment may require several months to a few years and entails using dental braces and other appliances to gradually adjust tooth position and jaw alignment. In cases where the malocclusion is severe, jaw surgery may be incorporated into the treatment plan. Treatment usually begins before a person reaches adulthood, insofar as pre-adult bones may be adjusted more easily before adulthood.

History

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Though it was rare until the Industrial Revolution,[7] there is evidence of the issue of overcrowded, irregular, and protruding teeth afflicting individuals. Evidence from Greek and Etruscan materials suggests that attempts to treat this disorder date back to 1000 BC, showcasing primitive yet impressively well-crafted orthodontic appliances. In the 18th and 19th centuries, a range of devices for the "regulation" of teeth were described by various dentistry authors who occasionally put them into practice.[8] As a modern science, orthodontics dates back to the mid-1800s.[9] The field's influential contributors include Norman William Kingsley[9] (1829–1913) and Edward Angle[10] (1855–1930). Angle created the first basic system for classifying malocclusions, a system that remains in use today.[9]

Beginning in the mid-1800s, Norman Kingsley published Oral Deformities, which is now credited as one of the first works to begin systematically documenting orthodontics. Being a major presence in American dentistry during the latter half of the 19th century, not only was Kingsley one of the early users of extraoral force to correct protruding teeth, but he was also one of the pioneers for treating cleft palates and associated issues. During the era of orthodontics under Kingsley and his colleagues, the treatment was focused on straightening teeth and creating facial harmony. Ignoring occlusal relationships, it was typical to remove teeth for a variety of dental issues, such as malalignment or overcrowding. The concept of an intact dentition was not widely appreciated in those days, making bite correlations seem irrelevant.[8]

In the late 1800s, the concept of occlusion was essential for creating reliable prosthetic replacement teeth. This idea was further refined and ultimately applied in various ways when dealing with healthy dental structures as well. As these concepts of prosthetic occlusion progressed, it became an invaluable tool for dentistry.[8]

It was in 1890 that the work and impact of Dr. Edwards H. Angle began to be felt, with his contribution to modern orthodontics particularly noteworthy. Initially focused on prosthodontics, he taught in Pennsylvania and Minnesota before directing his attention towards dental occlusion and the treatments needed to maintain it as a normal condition, thus becoming known as the "father of modern orthodontics".[8]

By the beginning of the 20th century, orthodontics had become more than just the straightening of crooked teeth. The concept of ideal occlusion, as postulated by Angle and incorporated into a classification system, enabled a shift towards treating malocclusion, which is any deviation from normal occlusion.[8] Having a full set of teeth on both arches was highly sought after in orthodontic treatment due to the need for exact relationships between them. Extraction as an orthodontic procedure was heavily opposed by Angle and those who followed him. As occlusion became the key priority, facial proportions and aesthetics were neglected. To achieve ideal occlusals without using external forces, Angle postulated that having perfect occlusion was the best way to gain optimum facial aesthetics.[8]

With the passing of time, it became quite evident that even an exceptional occlusion was not suitable when considered from an aesthetic point of view. Not only were there issues related to aesthetics, but it usually proved impossible to keep a precise occlusal relationship achieved by forcing teeth together over extended durations with the use of robust elastics, something Angle and his students had previously suggested. Charles Tweed[11] in America and Raymond Begg[12] in Australia (who both studied under Angle) re-introduced dentistry extraction into orthodontics during the 1940s and 1950s so they could improve facial esthetics while also ensuring better stability concerning occlusal relationships.[13]

In the postwar period, cephalometric radiography[14] started to be used by orthodontists for measuring changes in tooth and jaw position caused by growth and treatment.[15] The x-rays showed that many Class II and III malocclusions were due to improper jaw relations as opposed to misaligned teeth. It became evident that orthodontic therapy could adjust mandibular development, leading to the formation of functional jaw orthopedics in Europe and extraoral force measures in the US. These days, both functional appliances and extraoral devices are applied around the globe with the aim of amending growth patterns and forms. Consequently, pursuing true, or at least improved, jaw relationships had become the main objective of treatment by the mid-20th century.[8]

At the beginning of the twentieth century, orthodontics was in need of an upgrade. The American Journal of Orthodontics was created for this purpose in 1915; before it, there were no scientific objectives to follow, nor any precise classification system and brackets that lacked features.[16]

Until the mid-1970s, braces were made by wrapping metal around each tooth.[9] With advancements in adhesives, it became possible to instead bond metal brackets to the teeth.[9]

In 1972, Lawrence F. Andrews gave an insightful definition of the ideal occlusion in permanent teeth. This has had meaningful effects on orthodontic treatments that are administered regularly,[16] and these are: 1. Correct interarchal relationships 2. Correct crown angulation (tip) 3. Correct crown inclination (torque) 4. No rotations 5. Tight contact points 6. Flat Curve of Spee (0.0–2.5 mm),[17] and based on these principles, he discovered a treatment system called the straight-wire appliance system, or the pre-adjusted edgewise system. Introduced in 1976, Larry Andrews' pre-adjusted edgewise appliance, more commonly known as the straight wire appliance, has since revolutionized fixed orthodontic treatment. The advantage of the design lies in its bracket and archwire combination, which requires only minimal wire bending from the orthodontist or clinician. It's aptly named after this feature: the angle of the slot and thickness of the bracket base ultimately determine where each tooth is situated with little need for extra manipulation.[18][19][20]

Prior to the invention of a straight wire appliance, orthodontists were utilizing a non-programmed standard edgewise fixed appliance system, or Begg's pin and tube system. Both of these systems employed identical brackets for each tooth and necessitated the bending of an archwire in three planes for locating teeth in their desired positions, with these bends dictating ultimate placements.[18]

Evolution of the current orthodontic appliances

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When it comes to orthodontic appliances, they are divided into two types: removable and fixed. Removable appliances can be taken on and off by the patient as required. On the other hand, fixed appliances cannot be taken off as they remain bonded to the teeth during treatment.

Fixed appliances

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Fixed orthodontic appliances are predominantly derived from the edgewise appliance approach, which typically begins with round wires before transitioning to rectangular archwires for improving tooth alignment. These rectangluar wires promote precision in the positioning of teeth following initial treatment. In contrast to the Begg appliance, which was based solely on round wires and auxiliary springs, the Tip-Edge system emerged in the early 21st century. This innovative technology allowed for the utilization of rectangular archwires to precisely control tooth movement during the finishing stages after initial treatment with round wires. Thus, almost all modern fixed appliances can be considered variations on this edgewise appliance system.

Early 20th-century orthodontist Edward Angle made a major contribution to the world of dentistry. He created four distinct appliance systems that have been used as the basis for many orthodontic treatments today, barring a few exceptions. They are E-arch, pin and tube, ribbon arch, and edgewise systems.

E-arch

[edit]

Edward H. Angle made a significant contribution to the dental field when he released the 7th edition of his book in 1907, which outlined his theories and detailed his technique. This approach was founded upon the iconic "E-Arch" or 'the-arch' shape as well as inter-maxillary elastics.[21] This device was different from any other appliance of its period as it featured a rigid framework to which teeth could be tied effectively in order to recreate an arch form that followed pre-defined dimensions.[22] Molars were fitted with braces, and a powerful labial archwire was positioned around the arch. The wire ended in a thread, and to move it forward, an adjustable nut was used, which allowed for an increase in circumference. By ligation, each individual tooth was attached to this expansive archwire.[8]

Pin and tube appliance

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Due to its limited range of motion, Angle was unable to achieve precise tooth positioning with an E-arch. In order to bypass this issue, he started using bands on other teeth combined with a vertical tube for each individual tooth. These tubes held a soldered pin, which could be repositioned at each appointment in order to move them in place.[8] Dubbed the "bone-growing appliance", this contraption was theorized to encourage healthier bone growth due to its potential for transferring force directly to the roots.[23] However, implementing it proved troublesome in reality.

Ribbon arch

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Realizing that the pin and tube appliance was not easy to control, Angle developed a better option, the ribbon arch, which was much simpler to use. Most of its components were already prepared by the manufacturer, so it was significantly easier to manage than before. In order to attach the ribbon arch, the occlusal area of the bracket was opened. Brackets were only added to eight incisors and mandibular canines, as it would be impossible to insert the arch into both horizontal molar tubes and the vertical brackets of adjacent premolars. This lack of understanding posed a considerable challenge to dental professionals; they were unable to make corrections to an excessive Spee curve in bicuspid teeth.[24] Despite the complexity of the situation, it was necessary for practitioners to find a resolution. Unparalleled to its counterparts, what made the ribbon arch instantly popular was that its archwire had remarkable spring qualities and could be utilized to accurately align teeth that were misaligned. However, a major drawback of this device was its inability to effectively control root position since it did not have enough resilience to generate the torque movements required for setting roots in their new place.[8]

Edgewise appliance

[edit]

In an effort to rectify the issues with the ribbon arch, Angle shifted the orientation of its slot from vertical, instead making it horizontal. In addition, he swapped out the wire and replaced it with a precious metal wire that was rotated by 90 degrees in relation—henceforth known as Edgewise.[25] Following extensive trials, it was concluded that dimensions of 22 × 28 mils were optimal for obtaining excellent control over crown and root positioning across all three planes of space.[26] After debuting in 1928, this appliance quickly became one of the mainstays for multibanded fixed therapy, although ribbon arches continued to be utilized for another decade or so beyond this point too.[8]

Labiolingual

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Prior to Angle, the idea of fitting attachments on individual teeth had not been thought of, and in his lifetime, his concern for precisely positioning each tooth was not highly appraised. In addition to using fingersprings for repositioning teeth with a range of removable devices, two main appliance systems were very popular in the early part of the 20th century. Labiolingual appliances use bands on the first molars joined with heavy lingual and labial archwires affixed with soldered fingersprings to shift single teeth.

Twin wire

[edit]

Utilizing bands around both incisors and molars, a twin-wire appliance was designed to provide alignment between these teeth. Constructed with two 10-mil steel archwires, its delicate features were safeguarded by lengthy tubes stretching from molars towards canines. Despite its efforts, it had limited capacity for movement without further modifications, rendering it obsolete in modern orthodontic practice.

Begg's Appliance

[edit]

Returning to Australia in the 1920s, the renowned orthodontist, Raymond Begg, applied his knowledge of ribbon arch appliances, which he had learned from the Angle School. On top of this, Begg recognized that extracting teeth was sometimes vital for successful outcomes and sought to modify the ribbon arch appliance to provide more control when dealing with root positioning. In the late 1930s, Begg developed his adaptation of the appliance, which took three forms. Firstly, a high-strength 16-mil round stainless steel wire replaced the original precious metal ribbon arch. Secondly, he kept the same ribbon arch bracket but inverted it so that it pointed toward the gums instead of away from them. Lastly, auxiliary springs were added to control root movement. This resulted in what would come to be known as the Begg Appliance. With this design, friction was decreased since contact between wire and bracket was minimal, and binding was minimized due to tipping and uprighting being used for anchorage control, which lessened contact angles between wires and corners of the bracket.

Tip-Edge System

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Begg's influence is still seen in modern appliances, such as Tip-Edge brackets. This type of bracket incorporates a rectangular slot cutaway on one side to allow for crown tipping with no incisal deflection of an archwire, allowing teeth to be tipped during space closure and then uprighted through auxiliary springs or even a rectangular wire for torque purposes in finishing. At the initial stages of treatment, small-diameter steel archwires should be used when working with Tip-Edge brackets.

Contemporary edgewise systems

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Throughout time, there has been a shift in which appliances are favored by dentists. In particular, during the 1960s, when it was introduced, the Begg appliance gained wide popularity due to its efficiency compared to edgewise appliances of that era; it could produce the same results with less investment on the dentist's part. Nevertheless, since then, there have been advances in technology and sophistication in edgewise appliances, which led to the opposite conclusion: nowadays, edgewise appliances are more efficient than the Begg appliance, thus explaining why it is commonly used.

Automatic rotational control

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At the beginning, Angle attached eyelets to the edges of archwires so that they could be held with ligatures and help manage rotations. Now, however, no extra ligature is needed due to either twin brackets or single brackets that have added wings touching underneath the wire (Lewis or Lang brackets). Both types of brackets simplify the process of obtaining moments that control movements along a particular plane of space.

Alteration in bracket slot dimensions

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In modern dentistry, two types of edgewise appliances exist: the 18- and 22-slot varieties. While these appliances are used differently, the introduction of a 20-slot device with more precise features has been considered but not pursued yet.[27]

Straight-wire bracket prescriptions

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Rather than rely on the same bracket for all teeth, L.F. Andrews found a way to make different brackets for each tooth in the 1980s, thanks to the increased convenience of bonding.[28] This adjustment enabled him to avoid having multiple bends in archwires that would have been needed to make up for variations in tooth anatomy. Ultimately, this led to what was termed a "straight-wire appliance" system – an edgewise appliance that greatly enhanced its efficiency.[29] The modern edgewise appliance has slightly different construction than the original one. Instead of relying on faciolingual bends to accommodate variations among teeth, each bracket has a correspondingly varying base thickness depending on the tooth it is intended for. However, due to individual differences between teeth, this does not completely eliminate the need for compensating bends.[30] Accurately placing the roots of many teeth requires angling brackets in relation to the long axis of the tooth. Traditionally, this mesiodistal root positioning necessitated using second-order, or tip, bends along the archwire. However, angling the bracket or bracket slot eliminates this need for bends.

Given the discrepancies in inclination of facial surfaces across individual teeth, placing a twist, otherwise known as third-order or torque bends, into segments of each rectangular archwire was initially required with the edgewise appliance. These bends were necessary for all patients and wires, not just to avoid any unintentional movement of suitably placed teeth or when moving roots facially or lingually. Angulation of either brackets or slots can minimize the need for second-order or tip bends on archwires. Contemporary edgewise appliances come with brackets designed to adjust for any facial inclinations, thereby eliminating or reducing any third-order bends. These brackets already have angulation and torque values built in so that each rectangluar archwire can be contorted to form a custom fit without inadvertently shifting any correctly positioned teeth. Without bracket angulation and torque, second-order or tip bends would still be required on each patient's archwire.

Methods

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Upper and lower jaw functional expanders

A typical treatment for incorrectly positioned teeth (malocclusion) takes from one to two years, with braces being adjusted every four to 10 weeks by orthodontists,[31] while university-trained dental specialists are versed in the prevention, diagnosis, and treatment of dental and facial irregularities. Orthodontists offer a wide range of treatment options to straighten crooked teeth, fix irregular bites, and align the jaws correctly.[32] There are many ways to adjust malocclusion. In growing patients, there are more options to treat skeletal discrepancies, either by promoting or restricting growth using functional appliances, orthodontic headgear, or a reverse pull facemask. Most orthodontic work begins in the early permanent dentition stage before skeletal growth is completed. If skeletal growth has completed, jaw surgery is an option. Sometimes teeth are extracted to aid the orthodontic treatment (teeth are extracted in about half of all the cases, most commonly the premolars).[33]

Orthodontic therapy may include the use of fixed or removable appliances. Most orthodontic therapy is delivered using appliances that are fixed in place,[34] for example, braces that are adhesively bonded to the teeth. Fixed appliances may provide greater mechanical control of the teeth; optimal treatment outcomes are improved by using fixed appliances.

Fixed appliances may be used, for example, to rotate teeth if they do not fit the arch shape of the other teeth in the mouth, to adjust multiple teeth to different places, to change the tooth angle of teeth, or to change the position of a tooth's root. This treatment course is not preferred where a patient has poor oral hygiene, as decalcification, tooth decay, or other complications may result. If a patient is unmotivated (insofar as treatment takes several months and requires commitment to oral hygiene), or if malocclusions are mild.

The biology of tooth movement and how advances in gene therapy and molecular biology technology may shape the future of orthodontic treatment.[35]

Braces

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Dental braces

Braces are usually placed on the front side of the teeth, but they may also be placed on the side facing the tongue (called lingual braces). Brackets made out of stainless steel or porcelain are bonded to the center of the teeth using an adhesive. Wires are placed in a slot in the brackets, which allows for controlled movement in all three dimensions.

Apart from wires, forces can be applied using elastic bands,[36] and springs may be used to push teeth apart or to close a gap. Several teeth may be tied together with ligatures, and different kinds of hooks can be placed to allow for connecting an elastic band.[37][36]

Clear aligners are an alternative to braces, but insufficient evidence exists to determine their effectiveness.[38]

Treatment duration

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The time required for braces varies from person to person as it depends on the severity of the problem, the amount of room available, the distance the teeth must travel, the health of the teeth, gums, and supporting bone, and how closely the patient follows instructions. On average, however, once the braces are put on, they usually remain in place for one to three years. After braces are removed, most patients will need to wear a retainer all the time for the first six months, then only during sleep for many years.[39]

Headgear

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Orthodontic headgear, sometimes referred to as an "extra-oral appliance", is a treatment approach that requires the patient to have a device strapped onto their head to help correct malocclusion—typically used when the teeth do not align properly. Headgear is most often used along with braces or other orthodontic appliances. While braces correct the position of teeth, orthodontic headgear—which, as the name suggests, is worn on or strapped onto the patient's head—is most often added to orthodontic treatment to help alter the alignment of the jaw, although there are some situations in which such an appliance can help move teeth, particularly molars.

Full orthodontic headgear with headcap, fitting straps, facebow, and elastics

Whatever the purpose, orthodontic headgear works by exerting tension on the braces via hooks, a facebow, coils, elastic bands, metal orthodontic bands, and other attachable appliances directly into the patient's mouth. It is most effective for children and teenagers because their jaws are still developing and can be easily manipulated. (If an adult is fitted with headgear, it is usually to help correct the position of teeth that have shifted after other teeth have been extracted.) Thus, headgear is typically used to treat a number of jaw alignment or bite problems, such as overbite and underbite.[40]

Palatal expansion

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Palatal expansion can be best achieved using a fixed tissue-borne appliance. Removable appliances can push teeth outward but are less effective at maxillary sutural expansion. The effects of a removable expander may look the same as they push teeth outward, but they should not be confused with actually expanding the palate. Proper palate expansion can create more space for teeth as well as improve both oral and nasal airflow.[41]

Jaw surgery

[edit]

Jaw surgery may be required to fix severe malocclusions.[42] The bone is broken during surgery and stabilized with titanium (or bioresorbable) plates and screws to allow for healing to take place.[43] After surgery, regular orthodontic treatment is used to move the teeth into their final position.[44]

During treatment

[edit]

To reduce pain during the orthodontic treatment, low-level laser therapy (LLLT), vibratory devices, chewing adjuncts, brainwave music, or cognitive behavioral therapy can be used. However, the supporting evidence is of low quality, and the results are inconclusive.[45]

Post treatment

[edit]

After orthodontic treatment has been completed, there is a tendency for teeth to return, or relapse, back to their pre-treatment positions. Over 50% of patients have some reversion to pre-treatment positions within 10 years following treatment.[46] To prevent relapse, the majority of patients will be offered a retainer once treatment has been completed and will benefit from wearing their retainers. Retainers can be either fixed or removable.

Removable retainers

[edit]

Removable retainers are made from clear plastic, and they are custom-fitted for the patient's mouth. It has a tight fit and holds all of the teeth in position. There are many types of brands for clear retainers, including Zendura Retainer, Essix Retainer, and Vivera Retainer.[47] A Hawley retainer is also a removable orthodontic appliance made from a combination of plastic and metal that is custom-molded to fit the patient's mouth. Removable retainers will be worn for different periods of time, depending on the patient's need to stabilize the dentition.[48]

Fixed retainers

[edit]

Fixed retainers are a simple wire fixed to the tongue-facing part of the incisors using dental adhesive and can be specifically useful to prevent rotation in incisors. Other types of fixed retainers can include labial or lingual braces, with brackets fixed to the teeth.[48]

Clear aligners

[edit]

Clear aligners are another form of orthodontics commonly used today, involving removable plastic trays. There has been controversy about the effectiveness of aligners such as Invisalign or Byte; some consider them to be faster and more freeing than the alternatives.[49]

Training

[edit]

There are several specialty areas in dentistry, but the specialty of orthodontics was the first to be recognized within dentistry.[50] Specifically, the American Dental Association recognized orthodontics as a specialty in the 1950s.[50] Each country has its own system for training and registering orthodontic specialists.

Australia

[edit]

In Australia, to obtain an accredited three-year full-time university degree in orthodontics, one will need to be a qualified dentist (complete an AHPRA-registered general dental degree) with a minimum of two years of clinical experience. There are several universities in Australia that offer orthodontic programs: the University of Adelaide, the University of Melbourne, the University of Sydney, the University of Queensland, the University of Western Australia, and the University of Otago.[51] Orthodontic courses are accredited by the Australian Dental Council and reviewed by the Australian Society of Orthodontists (ASO). Prospective applicants should obtain information from the relevant institution before applying for admission.[52] After completing a degree in orthodontics, specialists are required to be registered with the Australian Health Practitioner Regulation Agency (AHPRA) in order to practice.[53][54]

Bangladesh

[edit]

Dhaka Dental College in Bangladesh is one of the many schools recognized by the Bangladesh Medical and Dental Council (BM&DC) that offer post-graduation orthodontic courses.[55][56] Before applying to any post-graduation training courses, an applicant must have completed the Bachelor of Dental Surgery (BDS) examination from any dental college.[55] After application, the applicant must take an admissions test held by the specific college.[55] If successful, selected candidates undergo training for six months.[57]

Canada

[edit]

In Canada, obtaining a dental degree, such as a Doctor of Dental Surgery (DDS) or Doctor of Medical Dentistry (DMD), would be required before being accepted by a school for orthodontic training.[58] Currently, there are 10 schools in the country offering the orthodontic specialty.[58] Candidates should contact the individual school directly to obtain the most recent pre-requisites before entry.[58] The Canadian Dental Association expects orthodontists to complete at least two years of post-doctoral, specialty training in orthodontics in an accredited program after graduating from their dental degree.

United States

[edit]

Similar to Canada, there are several colleges and universities in the United States that offer orthodontic programs. Every school has a different enrollment process, but every applicant is required to have graduated with a DDS or DMD from an accredited dental school.[59][60] Entrance into an accredited orthodontics program is extremely competitive and begins by passing a national or state licensing exam.[61]

The program generally lasts for two to three years, and by the final year, graduates are required to complete the written American Board of Orthodontics (ABO) exam.[61] This exam is also broken down into two components: a written exam and a clinical exam.[61] The written exam is a comprehensive exam that tests for the applicant's knowledge of basic sciences and clinical concepts.[61] The clinical exam, however, consists of a Board Case Oral Examination (BCOE), a Case Report Examination (CRE), and a Case Report Oral Examination (CROE).[61] Once certified, certification must then be renewed every ten years.[61] Orthodontic programs can award a Master of Science degree, a Doctor of Science degree, or a Doctor of Philosophy degree, depending on the school and individual research requirements.[62]

United Kingdom

[edit]

Throughout the United Kingdom, there are several Orthodontic Specialty Training Registrar posts available.[63] The program is full-time for three years, and upon completion, trainees graduate with a degree at the Masters or Doctorate level.[63] Training may take place within hospital departments that are linked to recognized dental schools.[63] Obtaining a Certificate of Completion of Specialty Training (CCST) allows an orthodontic specialist to be registered under the General Dental Council (GDC).[63] An orthodontic specialist can provide care within a primary care setting, but to work at a hospital as an orthodontic consultant, higher-level training is further required as a post-CCST trainee.[63] To work within a university setting as an academic consultant, completing research toward obtaining a Ph.D. is also required.[63]

See also

[edit]
  • Orthodontic technology
  • Orthodontic indices
  • List of orthodontic functional appliances
  • Molar distalization
  • Mouth breathing
  • Obligate nasal breathing

Notes

[edit]
  1. ^ Also referred to as orthodontia
  2. ^ "Orthodontics" comes from the Greek orthos ('correct, straight') and -odont- ('tooth').[1]

References

[edit]
  1. ^ "Definition of orthodontics | Dictionary.com". www.dictionary.com. Retrieved 2019-08-28.
  2. ^ "What is orthodontics?// Useful Resources: FAQ and Downloadable eBooks". Orthodontics Australia. Retrieved 2020-08-13.
  3. ^ Lombardo G, Vena F, Negri P, Pagano S, Barilotti C, Paglia L, Colombo S, Orso M, Cianetti S (June 2020). "Worldwide prevalence of malocclusion in the different stages of dentition: A systematic review and meta-analysis". Eur J Paediatr Dent. 21 (2): 115–22. doi:10.23804/ejpd.2020.21.02.05. PMID 32567942.
  4. ^ Whitcomb I (2020-07-20). "Evidence and Orthodontics: Does Your Child Really Need Braces?". Undark Magazine. Retrieved 2020-07-27.
  5. ^ "Controversial report finds no proof that dental braces work". British Dental Journal. 226 (2): 91. 2019-01-01. doi:10.1038/sj.bdj.2019.65. ISSN 1476-5373. S2CID 59222957.
  6. ^ von Cramon-Taubadel N (December 2011). "Global human mandibular variation reflects differences in agricultural and hunter-gatherer subsistence strategies". Proceedings of the National Academy of Sciences of the United States of America. 108 (49): 19546–19551. Bibcode:2011PNAS..10819546V. doi:10.1073/pnas.1113050108. PMC 3241821. PMID 22106280.
  7. ^ Rose, Jerome C.; Roblee, Richard D. (June 2009). "Origins of dental crowding and malocclusions: an anthropological perspective". Compendium of Continuing Education in Dentistry (Jamesburg, N.J.: 1995). 30 (5): 292–300. ISSN 1548-8578. PMID 19514263.
  8. ^ a b c d e f g h i j k Proffit WR, Fields Jr HW, Larson BE, Sarver DM (2019). Contemporary orthodontics (Sixth ed.). Philadelphia, PA. ISBN 978-0-323-54387-3. OCLC 1089435881.cite book: CS1 maint: location missing publisher (link)
  9. ^ a b c d e "A Brief History of Orthodontic Braces – ArchWired". www.archwired.com. 17 July 2019.[self-published source]
  10. ^ Peck S (November 2009). "A biographical portrait of Edward Hartley Angle, the first specialist in orthodontics, part 1". The Angle Orthodontist. 79 (6): 1021–1027. doi:10.2319/021009-93.1. PMID 19852589.
  11. ^ "The Application of the Principles of the Edge- wise Arch in the Treatment of Malocclusions: II.*". meridian.allenpress.com. Retrieved 2023-02-07.
  12. ^ "British Orthodontic Society > Museum and Archive > Collection > Fixed Appliances > Begg". www.bos.org.uk. Retrieved 2023-02-07.
  13. ^ Safirstein D (August 2015). "P. Raymond Begg". American Journal of Orthodontics and Dentofacial Orthopedics. 148 (2): 206. doi:10.1016/j.ajodo.2015.06.005. PMID 26232825.
  14. ^ Higley LB (August 1940). "Lateral head roentgenograms and their relation to the orthodontic problem". American Journal of Orthodontics and Oral Surgery. 26 (8): 768–778. doi:10.1016/S0096-6347(40)90331-3. ISSN 0096-6347.
  15. ^ Themes UF (2015-01-12). "14: Cephalometric radiography". Pocket Dentistry. Retrieved 2023-02-07.
  16. ^ a b Andrews LF (December 2015). "The 6-elements orthodontic philosophy: Treatment goals, classification, and rules for treating". American Journal of Orthodontics and Dentofacial Orthopedics. 148 (6): 883–887. doi:10.1016/j.ajodo.2015.09.011. PMID 26672688.
  17. ^ Andrews LF (September 1972). "The six keys to normal occlusion". American Journal of Orthodontics. 62 (3): 296–309. doi:10.1016/s0002-9416(72)90268-0. PMID 4505873. S2CID 8039883.
  18. ^ a b Themes UF (2015-01-01). "31 The straight wire appliance". Pocket Dentistry. Retrieved 2023-02-07.
  19. ^ Andrews LF (July 1979). "The straight-wire appliance". British Journal of Orthodontics. 6 (3): 125–143. doi:10.1179/bjo.6.3.125. PMID 297458. S2CID 33259729.
  20. ^ Phulari B (2013), "Andrews' Straight Wire Appliance", History of Orthodontics, Jaypee Brothers Medical Publishers (P) Ltd., p. 98, doi:10.5005/jp/books/12065_11, ISBN 9789350904718, retrieved 2023-02-07
  21. ^ Angle EH. Treatment of malocclusion of the teeth. 7th éd. Philadelphia: S.S.White Dental Mfg Cy, 1907
  22. ^ Philippe J (March 2008). "How, why, and when was the edgewise appliance born?". Journal of Dentofacial Anomalies and Orthodontics. 11 (1): 68–74. doi:10.1051/odfen/20084210113. ISSN 2110-5715.
  23. ^ Angle EH (1912). "Evolution of orthodontia. Recent developments". Dental Cosmos. 54: 853–867.
  24. ^ Brodie AG (1931). "A discussion on the Newest Angle Mechanism". The Angle Orthodontist. 1: 32–38.
  25. ^ Angle EH (1928). "The latest and best in Orthodontic Mechanism". Dental Cosmos. 70: 1143–1156.
  26. ^ Brodie AG (1956). "Orthodontic Concepts Prior to the Death of Edward Angle". The Angle Orthodontist. 26: 144–155.
  27. ^ Matasa CG, Graber TM (April 2000). "Angle, the innovator, mechanical genius, and clinician". American Journal of Orthodontics and Dentofacial Orthopedics. 117 (4): 444–452. doi:10.1016/S0889-5406(00)70164-8. PMID 10756270.
  28. ^ Andrews LF. Straight Wire: The Concept and Appliance. San Diego: LA Wells; 1989.
  29. ^ Andrews LF (1989). Straight wire: the concept and appliance. Lisa Schirmer. San Diego, CA. ISBN 978-0-9616256-0-3. OCLC 22808470.cite book: CS1 maint: location missing publisher (link)
  30. ^ Roth RH (November 1976). "Five year clinical evaluation of the Andrews straight-wire appliance". Journal of Clinical Orthodontics. 10 (11): 836–50. PMID 1069735.
  31. ^ Fleming PS, Fedorowicz Z, Johal A, El-Angbawi A, Pandis N, et al. (The Cochrane Collaboration) (June 2015). "Surgical adjunctive procedures for accelerating orthodontic treatment". The Cochrane Database of Systematic Reviews. 2015 (6). John Wiley & Sons, Ltd.: CD010572. doi:10.1002/14651858.cd010572. PMC 6464946. PMID 26123284.
  32. ^ "What is an Orthodontist?". Orthodontics Australia. 5 December 2019.
  33. ^ Dardengo C, Fernandes LQ, Capelli Júnior J (February 2016). "Frequency of orthodontic extraction". Dental Press Journal of Orthodontics. 21 (1): 54–59. doi:10.1590/2177-6709.21.1.054-059.oar. PMC 4816586. PMID 27007762.
  34. ^ "Child Dental Health Survey 2013, England, Wales and Northern Ireland". digital.nhs.uk. Retrieved 2018-03-08.
  35. ^ Atsawasuwan P, Shirazi S (2019-04-10). "Advances in Orthodontic Tooth Movement: Gene Therapy and Molecular Biology Aspect". In Aslan BI, Uzuner FD (eds.). Current Approaches in Orthodontics. IntechOpen. doi:10.5772/intechopen.80287. ISBN 978-1-78985-181-6. Retrieved 2021-05-16.
  36. ^ a b "Elastics For Braces: Rubber Bands in Orthodontics". Orthodontics Australia. 2019-12-15. Retrieved 2020-12-13.
  37. ^ Mitchell L (2013). An Introduction to Orthodontics. Oxford Medical Publications. pp. 220–233.
  38. ^ Rossini G, Parrini S, Castroflorio T, Deregibus A, Debernardi CL (September 2015). "Efficacy of clear aligners in controlling orthodontic tooth movement: a systematic review". The Angle Orthodontist. 85 (5): 881–889. doi:10.2319/061614-436.1. PMC 8610387. PMID 25412265. S2CID 10787375. The quality level of the studies was not sufficient to draw any evidence-based conclusions.
  39. ^ "Dental Braces and Retainers".
  40. ^ Millett DT, Cunningham SJ, O'Brien KD, Benson PE, de Oliveira CM (February 2018). "Orthodontic treatment for deep bite and retroclined upper front teeth in children". The Cochrane Database of Systematic Reviews. 2 (2): CD005972. doi:10.1002/14651858.CD005972.pub4. PMC 6491166. PMID 29390172.
  41. ^ "Palate Expander". Cleveland Clinic. Retrieved October 29, 2024.
  42. ^ "Jaw Surgery". Modern Orthodontic Clinic in Sammamish & Bellevue. Retrieved 2024-10-03.
  43. ^ Agnihotry A, Fedorowicz Z, Nasser M, Gill KS, et al. (The Cochrane Collaboration) (October 2017). Zbigniew F (ed.). "Resorbable versus titanium plates for orthognathic surgery". The Cochrane Database of Systematic Reviews. 10 (10). John Wiley & Sons, Ltd: CD006204. doi:10.1002/14651858.cd006204. PMC 6485457. PMID 28977689.
  44. ^ "British Orthodontic Society > Public & Patients > Your Jaw Surgery". www.bos.org.uk. Retrieved 2019-08-28.
  45. ^ Fleming PS, Strydom H, Katsaros C, MacDonald L, Curatolo M, Fudalej P, Pandis N, et al. (Cochrane Oral Health Group) (December 2016). "Non-pharmacological interventions for alleviating pain during orthodontic treatment". The Cochrane Database of Systematic Reviews. 2016 (12): CD010263. doi:10.1002/14651858.CD010263.pub2. PMC 6463902. PMID 28009052.
  46. ^ Yu Y, Sun J, Lai W, Wu T, Koshy S, Shi Z (September 2013). "Interventions for managing relapse of the lower front teeth after orthodontic treatment". The Cochrane Database of Systematic Reviews. 2014 (9): CD008734. doi:10.1002/14651858.CD008734.pub2. PMC 10793711. PMID 24014170.
  47. ^ "Clear Retainers | Maintain Your Hard to Get Smile with Clear Retainers". Retrieved 2020-01-13.
  48. ^ a b Martin C, Littlewood SJ, Millett DT, Doubleday B, Bearn D, Worthington HV, Limones A (May 2023). "Retention procedures for stabilising tooth position after treatment with orthodontic braces". The Cochrane Database of Systematic Reviews. 2023 (5): CD002283. doi:10.1002/14651858.CD002283.pub5. PMC 10202160. PMID 37219527.
  49. ^ Putrino A, Barbato E, Galluccio G (March 2021). "Clear Aligners: Between Evolution and Efficiency-A Scoping Review". International Journal of Environmental Research and Public Health. 18 (6): 2870. doi:10.3390/ijerph18062870. PMC 7998651. PMID 33799682.
  50. ^ a b Christensen GJ (March 2002). "Orthodontics and the general practitioner". Journal of the American Dental Association. 133 (3): 369–371. doi:10.14219/jada.archive.2002.0178. PMID 11934193.
  51. ^ "How to become an orthodontist". Orthodontics Australia. 26 September 2017.
  52. ^ "Studying orthodontics". Australian Society of Orthodontists. 26 September 2017.
  53. ^ "Specialties and Specialty Fields". Australian Health Practitioners Regulation Agency.
  54. ^ "Medical Specialties and Specialty Fields". Medical Board of Australia.
  55. ^ a b c "Dhaka Dental College". Dhaka Dental College. Archived from the original on October 28, 2017. Retrieved October 28, 2017.
  56. ^ "List of recognized medical and dental colleges". Bangladesh Medical & Dental Council (BM&DC). Retrieved October 28, 2017.
  57. ^ "Orthodontic Facts - Canadian Association of Orthodontists". Canadian Association of Orthodontists. Retrieved 26 October 2017.
  58. ^ a b c "FAQ: I Want To Be An Orthodontist - Canadian Association of Orthodontists". Canadian Association of Orthodontists. Retrieved 26 October 2017.
  59. ^ "RCDC - Eligibility". The Royal College of Dentists of Canada. Archived from the original on 29 October 2019. Retrieved 26 October 2017.
  60. ^ "Accredited Orthodontic Programs - AAO Members". www.aaoinfo.org.
  61. ^ a b c d e f "About Board Certification". American Board of Orthodontists. Archived from the original on 16 February 2019. Retrieved 26 October 2017.
  62. ^ "Accredited Orthodontic Programs | AAO Members". American Association of Orthodontists. Retrieved 26 October 2017.
  63. ^ a b c d e f "Orthodontic Specialty Training in the UK" (PDF). British Orthodontic Society. Retrieved 28 October 2017.

 

A patient is any recipient of health care services that are performed by healthcare professionals. The patient is most often ill or injured and in need of treatment by a physician, nurse, optometrist, dentist, veterinarian, or other health care provider.

Etymology

[edit]

The word patient originally meant 'one who suffers'. This English noun comes from the Latin word patiens, the present participle of the deponent verb, patior, meaning 'I am suffering', and akin to the Greek verb πάσχειν (paskhein 'to suffer') and its cognate noun πάθος (pathos).

This language has been construed as meaning that the role of patients is to passively accept and tolerate the suffering and treatments prescribed by the healthcare providers, without engaging in shared decision-making about their care.[1]

 

Outpatients and inpatients

[edit]
Patients at the Red Cross Hospital in Tampere, Finland during the 1918 Finnish Civil War
Receptionist in Kenya attending to an outpatient

An outpatient (or out-patient) is a patient who attends an outpatient clinic with no plan to stay beyond the duration of the visit. Even if the patient will not be formally admitted with a note as an outpatient, their attendance is still registered, and the provider will usually give a note explaining the reason for the visit, tests, or procedure/surgery, which should include the names and titles of the participating personnel, the patient's name and date of birth, signature of informed consent, estimated pre-and post-service time for history and exam (before and after), any anesthesia, medications or future treatment plans needed, and estimated time of discharge absent any (further) complications. Treatment provided in this fashion is called ambulatory care. Sometimes surgery is performed without the need for a formal hospital admission or an overnight stay, and this is called outpatient surgery or day surgery, which has many benefits including lowered healthcare cost, reducing the amount of medication prescribed, and using the physician's or surgeon's time more efficiently. Outpatient surgery is suited best for more healthy patients undergoing minor or intermediate procedures (limited urinary-tract, eye, or ear, nose, and throat procedures and procedures involving superficial skin and the extremities). More procedures are being performed in a surgeon's office, termed office-based surgery, rather than in a hospital-based operating room.

A mother spends days sitting with her son, a hospital patient in Mali

An inpatient (or in-patient), on the other hand, is "admitted" to stay in a hospital overnight or for an indeterminate time, usually, several days or weeks, though in some extreme cases, such as with coma or persistent vegetative state, patients can stay in hospitals for years, sometimes until death. Treatment provided in this fashion is called inpatient care. The admission to the hospital involves the production of an admission note. The leaving of the hospital is officially termed discharge, and involves a corresponding discharge note, and sometimes an assessment process to consider ongoing needs. In the English National Health Service this may take the form of "Discharge to Assess" - where the assessment takes place after the patient has gone home.[2]

Misdiagnosis is the leading cause of medical error in outpatient facilities. When the U.S. Institute of Medicine's groundbreaking 1999 report, To Err Is Human, found up to 98,000 hospital patients die from preventable medical errors in the U.S. each year,[3] early efforts focused on inpatient safety.[4] While patient safety efforts have focused on inpatient hospital settings for more than a decade, medical errors are even more likely to happen in a doctor's office or outpatient clinic or center.[citation needed]

Day patient

[edit]

A day patient (or day-patient) is a patient who is using the full range of services of a hospital or clinic but is not expected to stay the night. The term was originally used by psychiatric hospital services using of this patient type to care for people needing support to make the transition from in-patient to out-patient care. However, the term is now also heavily used for people attending hospitals for day surgery.

Alternative terminology

[edit]

Because of concerns such as dignity, human rights and political correctness, the term "patient" is not always used to refer to a person receiving health care. Other terms that are sometimes used include health consumer, healthcare consumer, customer or client. However, such terminology may be offensive to those receiving public health care, as it implies a business relationship.

In veterinary medicine, the client is the owner or guardian of the patient. These may be used by governmental agencies, insurance companies, patient groups, or health care facilities. Individuals who use or have used psychiatric services may alternatively refer to themselves as consumers, users, or survivors.

In nursing homes and assisted living facilities, the term resident is generally used in lieu of patient.[5] Similarly, those receiving home health care are called clients.

Patient-centered healthcare

[edit]

The doctor–patient relationship has sometimes been characterized as silencing the voice of patients.[6] It is now widely agreed that putting patients at the centre of healthcare[7] by trying to provide a consistent, informative and respectful service to patients will improve both outcomes and patient satisfaction.[8]

When patients are not at the centre of healthcare, when institutional procedures and targets eclipse local concerns, then patient neglect is possible.[9] Incidents, such as the Stafford Hospital scandal, Winterbourne View hospital abuse scandal and the Veterans Health Administration controversy of 2014 have shown the dangers of prioritizing cost control over the patient experience.[10] Investigations into these and other scandals have recommended that healthcare systems put patient experience at the center, and especially that patients themselves are heard loud and clear within health services.[11]

There are many reasons for why health services should listen more to patients. Patients spend more time in healthcare services than regulators or quality controllers, and can recognize problems such as service delays, poor hygiene, and poor conduct.[12] Patients are particularly good at identifying soft problems, such as attitudes, communication, and 'caring neglect',[9] that are difficult to capture with institutional monitoring.[13]

One important way in which patients can be placed at the centre of healthcare is for health services to be more open about patient complaints.[14] Each year many hundreds of thousands of patients complain about the care they have received, and these complaints contain valuable information for any health services which want to learn about and improve patient experience.[15]

See also

[edit]
  • Casualty
  • e-Patient
  • Mature minor doctrine
  • Nurse-client relationship
  • Patient abuse
  • Patient advocacy
  • Patient empowerment
  • Patients' Bill of Rights
  • Radiological protection of patients
  • Therapeutic inertia
  • Virtual patient
  • Patient UK

References

[edit]
  1. ^ Neuberger, J. (1999-06-26). "Do we need a new word for patients?". BMJ: British Medical Journal. 318 (7200): 1756–1758. doi:10.1136/bmj.318.7200.1756. ISSN 0959-8138. PMC 1116090. PMID 10381717.
  2. ^ "Unpaid carers' rights are overlooked in hospital discharge". Health Service Journal. 8 September 2021. Retrieved 16 October 2021.
  3. ^ Institute of Medicine (US) Committee on Quality of Health Care in America; Kohn, L. T.; Corrigan, J. M.; Donaldson, M. S. (2000). Kohn, Linda T.; Corrigan, Janet M.; Donaldson, Molla S. (eds.). To Err Is Human: Building a Safer Health System. Washington D.C.: National Academy Press. doi:10.17226/9728. ISBN 0-309-06837-1. PMID 25077248.
  4. ^ Bates, David W.; Singh, Hardeep (November 2018). "Two Decades Since: An Assessment Of Progress And Emerging Priorities In Patient Safety". Health Affairs. 37 (11): 1736–1743. doi:10.1377/hlthaff.2018.0738. PMID 30395508.
  5. ^ American Red Cross (1993). Foundations for Caregiving. St. Louis: Mosby Lifeline. ISBN 978-0801665158.
  6. ^ Clark, Jack A.; Mishler, Elliot G. (September 1992). "Attending to patients' stories: reframing the clinical task". Sociology of Health and Illness. 14 (3): 344–372. doi:10.1111/1467-9566.ep11357498.
  7. ^ Stewart, M (24 February 2001). "Towards a Global Definition of Patient Centred Care". BMJ. 322 (7284): 444–5. doi:10.1136/bmj.322.7284.444. PMC 1119673. PMID 11222407.
  8. ^ Frampton, Susan B.; Guastello, Sara; Hoy, Libby; Naylor, Mary; Sheridan, Sue; Johnston-Fleece, Michelle (31 January 2017). "Harnessing Evidence and Experience to Change Culture: A Guiding Framework for Patient and Family Engaged Care". NAM Perspectives. 7 (1). doi:10.31478/201701f.
  9. ^ a b Reader, TW; Gillespie, A (30 April 2013). "Patient Neglect in Healthcare Institutions: A Systematic Review and Conceptual Model". BMC Health Serv Res. 13: 156. doi:10.1186/1472-6963-13-156. PMC 3660245. PMID 23631468.
  10. ^ Bloche, MG (17 March 2016). "Scandal as a Sentinel Event--Recognizing Hidden Cost-Quality Trade-offs". N Engl J Med. 374 (11): 1001–3. doi:10.1056/NEJMp1502629. PMID 26981930.
  11. ^ Report of the Mid Staffordshire NHS Foundation Trust Public Inquiry: Executive Summary. London: Stationery Office. 6 February 2013. ISBN 9780102981476. Retrieved 23 June 2020.
  12. ^ Weingart, SN; Pagovich, O; Sands, DZ; Li, JM; Aronson, MD; Davis, RB; Phillips, RS; Bates, DW (April 2006). "Patient-reported Service Quality on a Medicine Unit". Int J Qual Health Care. 18 (2): 95–101. doi:10.1093/intqhc/mzi087. PMID 16282334.
  13. ^ Levtzion-Korach, O; Frankel, A; Alcalai, H; Keohane, C; Orav, J; Graydon-Baker, E; Barnes, J; Gordon, K; Puopulo, AL; Tomov, EI; Sato, L; Bates, DW (September 2010). "Integrating Incident Data From Five Reporting Systems to Assess Patient Safety: Making Sense of the Elephant". Jt Comm J Qual Patient Saf. 36 (9): 402–10. doi:10.1016/s1553-7250(10)36059-4. PMID 20873673.
  14. ^ Berwick, Donald M. (January 2009). "What 'Patient-Centered' Should Mean: Confessions Of An Extremist". Health Affairs. 28 (Supplement 1): w555 – w565. doi:10.1377/hlthaff.28.4.w555. PMID 19454528.
  15. ^ Reader, TW; Gillespie, A; Roberts, J (August 2014). "Patient Complaints in Healthcare Systems: A Systematic Review and Coding Taxonomy". BMJ Qual Saf. 23 (8): 678–89. doi:10.1136/bmjqs-2013-002437. PMC 4112446. PMID 24876289.
[edit]
  • Jadad AR, Rizo CA, Enkin MW (June 2003). "I am a good patient, believe it or not". BMJ. 326 (7402): 1293–5. doi:10.1136/bmj.326.7402.1293. PMC 1126181. PMID 12805157.
    a peer-reviewed article published in the British Medical Journal's (BMJ) first issue dedicated to patients in its 160-year history
  • Sokol DK (21 February 2004). "How (not) to be a good patient". BMJ. 328 (7437): 471. doi:10.1136/bmj.328.7437.471. PMC 344286.
    review article with views on the meaning of the words "good doctor" vs. "good patient"
  • "Time Magazine's Dr. Scott Haig Proves that Patients Need to Be Googlers!" – Mary Shomons response to the Time Magazine article "When the Patient is a Googler"

 

Frequently Asked Questions

Vibration devices can help reduce discomfort associated with orthodontic treatment by enhancing the effectiveness of aligners and braces, and by providing gentle vibrational stimulation that can help seat aligners more effectively[2][3].