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An Evidence-Based Approach to Cleansing and Polishing Teeth

INTRODUCTION

In the healthcare environment, clinical decisions are made from an evidence-based perspective by integrating the best research, expertise, and judgment from the practitioner, along with the needs and values of the patient. Given the commitment of the dental hygiene profession to incorporate this evidence-based perspective for lifelong oral health, there are still two fundamental procedures that continue to undergo scrutiny in the hygiene community: cleansing and polishing. Unfortunately, reaching for the prophylaxis paste is no longer as simple as it used to be; there is now a plethora of commercial cleansing/polishing agents, devices, and restorative materials that make evidence-based decision making a mandatory step to meet the standards of dental hygiene practice. To accommodate these recent developments, this article takes an in-depth, evidence-based perspective on the mechanisms and materials involved in professional cleansing and polishing.

BACK TO THE BASICS: A REVIEW OF TERMS

When oral health professionals use the word ‘polishing’, they are typically referring to the dual process known as cleansing and polishing.1 The American Dental Hygienists’ Association’s (ADHA) Position Paper on Polishing Procedures sufficiently distinguishes between these closely related terms—definingcleansing as “the ability to remove debris and extraneous matter from the teeth”, and polishing as “the implementation of making the tooth surface smooth and lustrous”. Moreover, The American Academy of Periodontology defines tooth polishing (in relation to oral prophylaxis) as “the removal of plaque, calculus and stains from the exposed and unexposed surfaces of the teeth by scaling and polishing as a preventive measure for the control of local irritational factors”. When the correct agents are used, polishing then creates a light, reflective surface on both the enamel and any restored tooth surfaces.2

 

Furthermore, there are several other terms that are also being used throughout the hygiene community that relate to the practice of cleansing and polishing teeth. The term therapeutic polishing, for instance, refers to “polishing of the root surfaces that are exposed during surgery to reduce endotoxin and microflora on the cementum”.3 If future research supports this, the definition might be revised to reflect the use of polishing as a means of delivering therapeutic agents (e.g., fluoride/amorphous calcium phosphate [ACP]); furthermore, these agents would prevent caries by either remineralizing the enamel or treating dentinal hypersensitivity. Until then, more evidence of improved scientific outcomes is needed before this type of polishing can be clinically adopted. Another related term is called coronal polishing, which is defined as “a procedure designed to make the tooth free of plaque and extrinsic stain”.4 The authors of this definition do stipulate, though, that the procedure is selective and only performed after an assessed need of the client.

Another word often interlaced with this procedure is the term selective, which is used to indicate that cleansing and polishing procedures are only provided when justified by tooth surfaces that have visible stains after scaling and oral debridement is complete.4-5 Newly erupted teeth, crowns, and composite restorations are usually avoided to prevent damage to restored and natural teeth.6-8 Overall, an important factor to remember with any kind of stain removal is that it is essentially done for aesthetic—not health-based—reasons.11 Selective polishing (also known as extrinsic stain removal or selective stain removal) is an accepted procedure in accredited dental hygiene programs, and is now found in contemporary textbooks.12 Perhaps the most accurate term for all of these is selective stain removal,which indicates the removal of extrinsic stains after professional scaling, using a rubber cup, bristle brush, and/or an air-powder polishing system—though everything depends on the assessed needs of the patient.5

 TABLE 1: DEFINITIONS ASSOCIATED WITH CLEANSING AND POLISHING  

Cleansing The process of removing plaque biofilm and extrinsic stain from tooth surfaces remaining after scaling using a latex-free cup and or bristle brush on a prophylaxis angle attached to a low speed dental handpiece or an air-powder system. Cleansing can also be achieved at home with ADA-accepted dentifrices, toothbrushes/power brushes, and interdental cleaning devices. 
Polishing

(aka Cosmetic Polishing or Coronal Polishing)

The process of achieving a smooth, mirror-like enamel or material surface that reflects light and is characterized as having a high luster; accomplished with a fine to extra fine grit abrasive agent so that the surface scratches are smaller than the wavelength of visible light (<0.05 µm). May also encompass cleansing.
SELECTIVE STAIN REMOVAL

(a.k.a. Extrinsic Stain Removal/Selective Polishing/Rubber-cup Polishing)

 

The process of cleansing and polishing tooth surfaces to remove extrinsic stains that may remain after scaling using a latex-free cup and or bristle brush on a prophylaxis angle attached to a low- speed handpiece or with an air-powder polishing device, and an appropriately selected abrasive agent; however, cleansing and polishing are omitted on surfaces already stain free.
SUBSTRATE A surface material that needs to be cleansed and polished, for example: tooth structures, dental material(s) and/or dental restoration(s).
THERAPEUTIC POLISHING Polishing of exposed root surfaces during periodontal surgery to reduce bacteria and their byproducts on the root surface. Based on future research findings, the definition may evolve to mean the delivery of an active agent to control a disease process; for example, agents may include fluoride or ACP to encourage tooth remineralization or treat dentinal hypersensitivity. More product research and development are needed before this concept is adopted.
AIR-POWDER POLISHING

(a.k.a. Air-Polishing)

 

The process of cleansing and polishing the dentition and dental restorations using a device that mixes air and water pressure with an abrasive agent such as sodium bicarbonate powder, aluminum trihydroxide, calcium sodium phosphosilicate powder, or calcium carbonate powder to remove extrinsic stain remaining after scaling. Air-powder polishing is preferred over rubber-cup polishing for surfaces prior to dental sealant application.
ORAL PROPHYLAXIS Prevention of plaque biofilm and stain re-accumulation by cleaning and polishing the teeth. Term used when the dentition is in a state of health or in the presence of gingivitis. Also, it is important to remember that oral prophylaxis is inadequate for any patient with periodontal disease.

 

 

Source: The Dental Hygienist’s Guide to Polishing by Young Dental13

EVIDENCE-BASED APPROACH TO ABRASIVE AGENTS IN DENTAL PROPHYLAXIS

As healthcare providers, dental hygienists are responsible for understanding the science that supports the professional services and materials used when treating a variety of patients. For example, many abrasive agents are now available that cleanse and polish the natural crown, restored tooth surfaces, and various dental appliances.

The following materials represent specific examples of agents that are currently on the market for dental professionals:

  • Chalk
  • Cuttle
  • Feldspar (ProCare® Powder)
  • Kieselguhr
  • Corundum
  • Flour of Pumice (Young Dental’s D-Lish® Prophy Paste)
  • Emery
  • Garnet
  • Perlite (ClinPro Prophy Paste)
  • Sand [silica/quartz]
  • Tripoli
  • Sodium-Potassium
  • Aluminum Silicate (Pac-Dent’s ProPaste)
  • Zirconium Silicate (Zircon-F® Paste)
  • Diamond (Topex® Brilliance Micrograin Polishing Paste/PoGo® Polishers)
  • Aluminum Oxide (Prisma® Gloss)
  • Alumina Oxide (CPR™ Sapphire Prophy Paste)
  • Tin Oxide
  • Silicon Carbide

Some abrasive agents are used in laboratory (rouge), while others are used directly in the client’s mouth; moreover, some are designed specifically for cleansing, while others are suited more for polishing. Certain brands, though, have now designed the abrasive to break down while in use, meaning they will start coarse (to cleanse) and then will rapidly break down to fine to polish the surface (e.g. ClinPro Prophy Paste with fluoride).14 Air-powder polishing agents, also include a number of abrasive agents: 

  • Sodium Bicarbonate (e.g. Young Dental’s Air-Polishing Powder; Dentsply’s CavitronÒ Prophy-JetÒ Powder; Biotrol’s Perfect ChoiceÒ Air-Polishing Powder)
  • Aluminum Trihydroxide (Dentpsly’s CavitronÒ Jet-FreshÒ Powder)
  • Calcium Sodium Phosphosilicate (e.g., OSspray’s Sylc™)
  • Calcium Carbonate (e.g., KaVo’s ProphyFlexÒ Powder and Prophy PearlsÒ)
  • Glycine (which is the least abrasive powder- e.g., Electro Medical Systems Air-FlowÒ Powder Perio and Air-FlowÒ Powder Soft, available in Europe).

The abrasiveness of these air-polishing powders differ based on their physical characteristics and the polishing device used.15 Systems for delivering the cleansing and polishing agents to the tooth or restoration, may vary. For example, two body abrasive polishing occurs when the abrasive is implanted into the polishing device (e.g., paste-free cups, diamond impregnated points, aluminum oxide discs) and applied directly to the tooth or restored surface; three body abrasive polishing uses a separate agent (e.g., prophylaxis paste), which is then applied by the device (rubber cup or air-powder polishing system) to the tooth or restoration (the substrate).16-19

Characteristics of the abrasive agent (under the control of the manufacturer) and its method of application (under the control of the practitioner) both have an effect on the amount of substrate lost during cleansing and polishing. If the abrasivity of the agent is too low, stain will remain; if the abrasivity of the agent is too high, tooth structure, restorations and soft tissue may be damaged. However, an evidence-based selection is possible if the following factors are acknowledged and implemented correctly:

  • Recommended operator technique
  • Associated research literature
  • Assessed needs/wants of the patient
  • Key characteristics of abrasive agents

Although a few characteristics have already been discussed, abrasive agents do incorporate several more features that must be recognized before moving forward. These characteristics are as follows:

  • Hardness: The hardness of abrasives is ranked using Mohs Hardness Scale, a standard 10-point scale of mineral hardness with talc (1) the softest and diamond (10) the hardest. The Mohs values of 2-4 are the same for gold, cementum, and dentin; amalgam falls within the 4-5 range and 5-6 is the hardness of enamel and glass ionomer cements; 5-7 covers composite resins; 6-7 is the range for porcelain ceramics.
  • Particle size (grit): The smaller (finer) the grit, the smaller the scratches, which means the shinier the tooth or restoration surface will be after polishing. The finest grit yields the least amount of abrasion, even if the abrasive material is high on the Mohs Hardness Scale. This explains why some agents have high Mohs hardness values, yet are used on substrates with low Mohs Hardness values. For example, aluminum oxide is a 9 on Mohs Hardness Scale, yet its microfine particles used in NUPRO Shimmer™ make it safe to be used on restorations and implants. Prophylaxis pastes range in grit abrasivity from micro fine grit (0.05 µm) to coarse grit (5 µm).19 Coarse grit agents can create deep scratches and roughen tooth and restoration surfaces, making the surface substrate more likely to harbor plaque biofilm and stain. Medium and coarse agents have limited use in the oral cavity. If a coarse agent is used, it should be followed with a medium grit, and finished with a fine grit agent to leave the smoothest surface possible. Moreover, when changing grit size, it is necessary to change the cup or brush with each smaller grit, or else the goal of a smooth, light reflective surface will be compromised. 
  • Particle shape: Small, spherical-shaped particles abrade slower than large, angular, irregular shaped particles. For example, abrasive agents manufactured to have large, sharp, angular edges deepen the scratches on the substrate being cleansed and polished; flat, round particles are less or nonabrasive. Hard agents can be made safer by changing the particle size and shape in the manufacturing process. Particle size and shape explain why some abrasive agents have high Mohs hardness values, yet are used safely on substrates with low Mohs Hardness values.
  • Agent contact time: Whether the dental hygienist is using a rubber cup, bristle brush, air-powder polisher, or a two versus three body abrasion approach, longer contact of the device on one area increases the rate of substrate abrasion.20 All things being equal, brushes are more abrasive than rubber cups. Several microns of outer enamel can be removed after a single polishing with an abrasive, and the loss may accumulate over years of repeated cleansing and polishing. Less contact time reduces friction, heat generation, and surface abrasion; therefore a short, intermittent application (staccato or dabbing) is the operator technique of choice when using a rubber cup or bristled brush.21  It is also why the air-powder-water nozzle used in air-powder polishing is used three to four millimeters away from the tooth surface and kept in constant motion.
  • Applied pressure (force, load, measured in pounds per square inch [psi]) Next to contact time, applied pressure can significantly alter substrate surface during cleansing and polishing.21Greater pressure applied to the substrate by the rubber cup or bristle brush, or increasing the force of the air-powder-water spray will increase substrate abrasion. Therefore, in terms of operator technique, the pressure used should be the lowest amount necessary to remove extrinsic stain.
  • SpeedSpeed refers to the revolutions per minute (rpm) of the rubber cup or bristle brush polishing device. Increased enamel and dentin abrasion is directly related to increased rpm settings.22 Although there is no consensus on ideal handpiece speed during polishing procedures, some manufacturers of disposable prophy angles recommend 3,000 rpm for optimal results.23 In terms of operator technique, the lowest handpiece speed needed to remove extrinsic stain will reduce the rate of abrasion, preserve tooth and material structure, and prevent damage to dental pulps particularly in newly erupted and primary teeth.
  • Concentration and quantity:  The ratio of the quantity of particles suspended in the lubricant carrier (water or humectant) and amount of agent used will increase the rate of abrasion. Therefore, the concentration of the abrasive particles in the carrier and the amount of abrasive agent used should be no more than is necessary to remove the stain. A dry abrasive should never be applied to tooth structure or a dental restoration in the client’s mouth. Furthermore, when air-powder polishing, the powder selected should be the least abrasive and the ratio of abrasive powder to water is set at the lowest concentration necessary to remove the extrinsic stain.
  • Abrasiveness: Whether using a rubber cup, bristle brush or air-powder polishing device, the dental hygienist selects the least abrasive cleansing and polishing agent necessary to remove the visible extrinsic stain, taking into consideration the health, dental, and pharmacologic history of the client and characteristics of the substrate. This action will prevent iatrogenic effects and preserve the desirable characteristics of teeth and dental restorations.

TABLE 2: ABRASIVES USED IN DENTAL HYGIENE PRACTICE

Abrasive Agent MOHS* Hardness Value Recommendations
Potassium   0.4 Used as a cleansing agent in dentifrices and in desensitizing agents (potassium nitrate); promotes occlusion of dentinal tubules.
Sodium   0.5 Used as a cleansing agent in dentifrices; used in some fluoride compounds.
Aluminum silicates   2 Used as a cleansing and polishing agent; no excessive abrasion; compatible with dental fluoride compounds; non-corrosive to aluminum containers.
Sodium bicarbonate, kaolinite 2.5 Used as a cleansing agent in dentifrices for oral biofilm and stain removal; acid neutralizing agent.
Glycine  2 Used in Europe as a cleansing agent in air-powder polishing systems for oral biofilm and stain removal.
Calcium carbonate (whiting, calcite chalk)   3 Used as a cleansing and polishing agent in dentifrices and air-powder polishing systems for oral biofilm and stain removal; mild abrasive used to polish tooth enamel, gold foil, amalgam, and plastic materials.
Aluminum trihydroxide  2.5-3.5 Used as a cleansing and polishing agent in air-powder polishing systems for oral biofilm and stain removal from enamel only.
Phosphate salts (pyrophosphate, dibasic calcium phosphate dehydrate, tricalcium phosphate, sodium metaphosphate)  5 Used as a cleansing agent in dentifrices for oral biofilm and stain removal.
Rouge  (jewelers rouge, iron oxide)   5-6 Used for polishing gold and precious metal alloys in the dental laboratory; blended with soft binders into a cake form.  Not used in the mouth.
Calcium sodium phosphosilicate  6 Used as a cleansing and polishing agent in air-powder polishing systems for oral biofilm and stain removal. The hardest of the powders available for air-powder polishing.
Flour of Pumice  

-Superfine pumice (pumice flour)

-Fine/Medium/Coarse pumice 

6-7 Used as a cleansing agent in some prophylaxis paste for oral biofilm and stain removal; used for polishing tooth enamel, gold foil, dental amalgam, and acrylic resin.
Tin oxide (putty powder, stannic oxide)   6-7 Used extensively for polishing teeth and metallic restorations; mixed with water or glycerin to form a mildly abrasive paste.
Silica or sand  (silex [silicon dioxide], hydrated silica, sodium potassium aluminum silicate)  6-7 May be applied under air pressure (sandblasting) to remove investment material from base metal alloy castings; coated onto paper disks for grinding metal alloys and plastic materials. Used for heavy stain removal; effectively cleanses tooth surfaces with low abrasion and has a high cleansing capability.
Zirconium silicate (zircon)  6.5-7.5 Used in some dental prophylaxis pastes and to coat abrasive disks, strips, points and paste- free rubber cups.
Garnet  6.5-7.5 Used for polishing acrylic dental appliances and composites.
Cuttle   7 Originally, a powdered calcareous shell of the cuttlefish, but now derived from quartz; used to coat paper disks to finish gold alloys, acrylics, and composites.
Corundum (aluminum oxide [alumina])  9 Aluminum oxide- used for polishing composite, highly-filled hybrid composites, acrylic resin, and porcelain restorations and custom trays; bonded to disks or paper strips; impregnated into rubber wheels and points; air propelled grit. Levigated alumina- used on metals and for grinding metal alloys; used to make white stones.
Silicon carbide   9.5 Used as an abrasive in coated disks; can cut metal alloys, ceramics, and plastic materials.
Diamond    10 Used in some polishing pastes and diamond impregnated polishers; used on ceramic, porcelain, and resin-based composite materials and metal backed abrasive strips and furcation files.

*Mohs Hardness value: standard for measuring the hardness of abrasives and substrates; the higher the value, the harder the material or the more abrasive the material. Even a very hard material will be minimally abrasive if used as a very fine particle size. Source: Darby, M & Walsh, M. Management of Extrinsic and Intrinsic Stains. in Darby & Walsh Dental Hygiene Theory and Practice, ed 3. St. Louis, MO: Elsevier Saunders, 2010, pp. 513-514.

To be effective, the abrasive particles must be harder than the surface material being polished. To achieve a cleansed surface and to prevent scratching, the abrasive should be less than or equal in hardness to the surface being cleansed. To achieve a polished surface, particles must be one to two units on the scale harder than the substrate being polished. With so many substrates in the oral cavity that require independent maintenance, there is not one prophylaxis paste that is suitable for all. Depending on the characteristics and ingredients, professional polishing agents may be 20 times more abrasive to dentin and 10 times more abrasive to enamel than the polishing agents found in commercial toothpastes.23-24 Practitioners preserve tooth structure and restorations using a low abrasive or non-abrasive paste on a toothbrush or rubber cup when the patient insists on polishing.

CONCLUSION

After reading this article, a more thorough understanding of cleansing and polishing should be acknowledged in regards to the collective terminology and materials being used in contemporary hygiene practice. A review of the current definitions for both cleansing and polishing were discussed, in addition to several other techniques that are currently being considered in specialized cases requiring this procedure. Materials, such as abrasive agents, were also comprehensively examined from an evidence-based perspective to shed more light on the growing prophylaxis market.

REFERENCES

American Academy of Pediatric Dentistry. Guidelines on the Role of Dental Prophylaxis in Pediatric Dentistry. 1996

 

http://www.aapd.org/media/Policies_Guidelines/G_Prophylaxis.pdf

American Academy of Periodontology.Glossary of Periodontal Terms, 4rd Edition. Chicago: American Academy of Periodontology, 2001.

http://www.perio.org/resources-products/Perio-Terms-Glossary.pdf

American Dental Hygienists’ Association Position Paper on the Oral Prophylaxis, 1998

https://www.adha.org/profissues/prophylaxis.htm

American Dental Hygienists’ Association Position on Polishing Procedures. (1997) (2012, March 14.) http://adha.org/profissues/polishingpaper.htm

Azarpazhooh A, Main PA. Efficacy of Dental Prophylaxis (rubber cup) for the Prevention of Caries and Gingivitis: a Systematic Review, Br Dent J 2009 207:7: E14.

Barnes CM, Covey DA, Walker MP, Johnson WW. Essential Selective Polishing:  the maintenance of Aesthetic restorations. J Pract Hyg 2003, 12:5: 18-24.

Barnes CM The Science of Polishing. Dimensions of Dental Hygiene 2009. 7:11:18-20,

22. http://www.dimensionsofdentalhygiene.com/Print.aspx?id=6300

Barnes, C. (n.d.). Polishing esthetic restorative materials. Dimensions of Dental Hygiene

http://www.dimensionsofdentalhygiene.com/ddhright.aspx?id=6894&terms=polishing aesthetic

Barnes, CM. (2008.).  Protocol for polishing. Dimensions of Dental Hygiene  (2012, March 14)http://www.dimensionsofdentalhygiene.com/ddhright.aspx?id=177

Barnes, C., Covey, D. A., Watanabe, H., & Johnson, W. (2011, November 04). Effects of a Paste-Free Prophylaxis Polishing Cup and Various Prophylaxis Polishing Pastes on Tooth Enamel and Restorative Materialshttp://www.agd.org/publications/articles/?ArtID=10179

Barnes, C. Extrinsic stain removal in Wilkins EM. Ed, Clinical Practice of the Dental Hygienist. Philadelphia, PA: Lippincott Williams & Wilkins, 2013, pp 689-708.

 

Beebe, S. (n.d.). The pros and cons of selective polishing. Retrieved fromhttp://www.irishdentist.ie/articles_print.php?id=569

Brockmann SL, Scott RL, Eick JD. The Effect of an Air Polishing Device on Tensilebond strength of a dental seaslant, Quintessence Int 1989. 20:211-217.

Calley K H Dimensions of Dental Hygiene. June 2009; 7(6): 38-41.http://www.dimensionsofdentalhygiene.com/Print.aspx?id=5078

Christensen RP, Bangerter VW. Determination of rpm, time, and load used in oral prophylaxis polishing in vivo. J Dent Res 1984: 63:1376-1382.

Daniels SJ,  Harfst SA, Wilder RS. Dental hygiene Concepts, Cases and Competencies. St Louis, MO, 2008.

Darby, M., & Walsh, M. (2010). Dental Hygiene Theory and Practice, ed 3 St. Louis: Elsevier Saunders, pp. 511-528.

Darby, M & Walsh, M. Management of Extrinsic and Intrinsic Stains. in Darby & Walsh Dental Hygiene Theory and Practice, ed 3. St. Louis, MO: Elsevier Saunders, 2010, pp 511-528.

Gurgan S, Cakir FY.  The effect of three different mouthrinses on the surface hardness, gloss and color change of bleached nanocomposite resins. Eur J Prosthont Res Dent 2008: 16:104-108.

Heasman P, McCraken G, & Steen N. Supportive Periodontal Care: The Effect of Periodic Subgingival Debridement Compared with Supragingival Prophylaxis with Respect to Clinical Outcomes. Journal of Clinical Periodontology 2002:29(3): 163-172.

Hunter EL, Biller-Karlsson IR, Featherstone MJ & Silverstone LM, The prophylaxis Polish: A Review of the Literature. Dental Hygiene 1981: 55:36-42.

Hutchings IM. Abrasion process in wear and manufacturing. Proceedings of the Institution of Mechanical Engineers. Part J: Journal of Engineering Tribology. 2002: 216:55-62.

Hodsdon KA. What Color is Your DPA: Here’s The “Need to Know” and “Good to Know About Why Your Prophy Head Spins. RDH Magazine 2005: 25:9:86-90.

Jones, T. (n.d.). Polishing Techniques for Beauty and Longevity.

http://www.dentistrytoday.com/aesthetics/aesthetic-restorative-maintenance/113-polishing-techniques-for-beauty-and-longevity-

Joyston-Bechal S, Duckworth R, Baden M.  The Effect of Artificially  Produced Pellicle and Plaque on the Uptake of 18F by Human Enamel in Vitro. Arch Oral Bio  1979; 21:2:73-8.

Kho, P; Smales, FC; & Hardie, JM. The Effect of Supragingival Plaque Control on the Subgingival Microflora. Journal of Clinical Periodontology 1985 12(8).

Koch G, Petersson LG, Johnson G. Abrasive Effect and Fluorine Uptake from Polishing and Prophylactic Pastes, Swed Dent J 1975; 68:1:1-7.

LaCross, Inma. Posing the Polishing Question. Dimensions of Dental Hygiene 2007 5(6) 20, 22-23.http://www.dimensionsofdentalhygiene.com/ddhright.aspx?id=1155&terms=lacross

Lutz  F, Sneer B , Imfeld T, Barbakow F,  Schupback P. Self-Adjusting Abrasiveness: A New Technology for Prophylaxis Pastes. Quintessense Int 1993: 24:53-63.

Madan C, Bains R, Bains V. Tooth Polishing: relevance in present day Periodontal practice. Journal of  Indian Society of Perio. 2010:13:1:58-59.

Mellberg JR. The Relative Abrasivity of Dental Prophylactic Pastes and Abrasives on Enamel and Dentin. Clin Prev Dent 1979; 1: 1:13-8.

Mitchell T, Peter R, Gadbury-Amyot C, Overman P, Stover L. Access to Care and the Allied Oral Health Care Workforce in Kansas: Perceptions of Kansas Dental Hygienists and Scaling Dental Assistants. Journal of Dental Education 2006; 70(3):263-278.

Nield-Gehrig JS, Sroda RA. Instrumentation for client assessment in Darby ML, ed Comprehensive Review of Dental Hygiene, ed 7,St. Louis, Elsevier Mosby, 2012, pp 639-664.

Nordstrom, NK; Uldricks, JM; Beck FM. Selective Polishing: An Educational Trend in Dental Hygiene.Journal of Dental Hygiene 1991:65: 428.

O’Heir TE. Gross Scaling: An Antiquated Concept. Dental Hygiene News 1994; 7(1):19-20.

Pelka MA, Altmaier K, Petschelt A, Lohbauer U.  The Effect of Air-Polishing Abrasives on Wear of Direct Restorative Materials and Sealants. The Journal of Am Dent Assoc, 2010:141:63-70.

Penugonda B, Settembrini L, Scherer W, Hitelman E. Alcohol-containing moutwashes: effect on composite hardness, J Clin Dent 1994:5:60-62.

Putt MS,  Kleber CJ, Muhler JC. Enamel Polish and Abrasion by Prophylaxis Pastes. Dental hygiene1982: 38-43.

Roulet , JF & Roulet-Mehrens TK. The Surface Roughness of Restorative Materials and Dental Tissues after Polishing with Prophylaxis and Polishing Pastes. Journal of Periodontology 1982: 53, 257.

Rylander W, Westfelt E, Dahien G, Lindhe J. The Effect of Supragingival Plaque Control on the Progression of Advanced Periodontal Disease. Journal of Clinical Periodontology 1998; 25:536-541.

Stookey, G. InVitro Estimates of Enamel and Dentin Abrasion Associated with a Prophylaxis. Journal of Dental Research 1979:57, 36.

Swan RW. Dimensional Changes in a Tooth Root Incident to Various Polishing and Root Planning Procedures. Dental Hygiene 1979; 53:17-79.

Terezhalmy G, Walters PA,  Bartizek RD, Grender JM, Biesbrock AR. A Clinical Evaluation of Extrinsic Stain Removal: A Rotation-oscillation Toothbrush Versus a Dental Prophylaxis. J Contemporary Dental Practice 2008 July: 2008: 9:5:1-5.

Tinanoff N, Wei  SHY,  Parkins FM. Effect of a Pumice Prophylaxis on Fluoride Uptake in Tooth Enamel. J Am Dent Assoc 1974:88:2:384-9.

Tolle, Lynn. Periodontal and Risk Assessment in Darby, M. & Walsh, M. Dental Hygiene Theory and Practice, ed 3. Philadelphia, PA: W.B. Saunders, 2010

 

Vrbic V; Brudevold F; McCann HG. Acquisition of Fluoride by Enamel from Fluoride  Pumice Pastess. Helv. Odontol. Acta 1967 11:1:21-6..

Wall, S. (2009, May). Rethinking the concept of selective polishing. RDH Magazine, 44-46, 82. DOI:www.rdhmag.com

Walsh MM, Heckman B, Moreau-Diettinger, Buchanan. Effect of a Rubber Cup Polish after Scaling.Dental Hygiene 1985:59(11):494-498.

Originally Published by: The Richmond Institute for Continuing Dental Education

http://www.richmondinstitute.com/article/preventive/an-evidence-based-approach-to-cleansing-and-polishing-part-i

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