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Search Results (7)

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Keywords = antigingivitis

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16 pages, 1466 KiB  
Article
Glycolysis and Automated Plaque Regrowth Method for Evaluation of Antimicrobial Performance
by Robert L. Karlinsey and Tamara R. Karlinsey
Dent. J. 2024, 12(5), 146; https://doi.org/10.3390/dj12050146 - 17 May 2024
Viewed by 1082
Abstract
Purpose: This study explored the potential of a new in vitro method in evaluating antiplaque benefits from five sets of antimicrobial systems including cetylpyridinium chloride (CPC), stannous fluoride (SnF2), Listerine essential oil mouthwashes (+/− alcohol), zinc chloride (ZnCl2), and [...] Read more.
Purpose: This study explored the potential of a new in vitro method in evaluating antiplaque benefits from five sets of antimicrobial systems including cetylpyridinium chloride (CPC), stannous fluoride (SnF2), Listerine essential oil mouthwashes (+/− alcohol), zinc chloride (ZnCl2), and sodium fluoride. (NaF). Methods: Gingival dental plaque was collected and propagated using sterilized tryptic soy broth and sucrose, and then allocated into separate glycolysis and regrowth recipes for antiplaque evaluations. Glycolysis measurements (in duplicate) were recorded via pH microelectrode on plaque-treatment samples thermomixed (1200 rpm, 37 °C) for 4 h. For plaque regrowth, optical densities (in duplicate) were automatically collected on plaque-treatment samples using a microplate reader (linear shaking, 37 °C) from baseline to 4 h. Results: Calculations of percent change in pH and optical density were performed and analyzed for each set of antimicrobial treatment groups. Statistical analysis (one-way ANOVA, Student–Newman–Keuls stepwise comparison tests) revealed dose responses and significant differences (p < 0.05) among treatment groups, including between negative and clinically relevant positive controls. Conclusions: This lab method produces results consistent with published clinical observations. This glycolysis and plaque growth method is sensitive to antimicrobial mechanisms of action, and may offer a convenient and clinically relevant screening tool in the evaluation of putative antimicrobial agents and formulations. Full article
(This article belongs to the Special Issue Preventive Dentistry and Dental Public Health)
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Figure 1
<p>Glycolysis (via pH measurements) produced from human plaque treated with 0.001% (blue open triangles, line), 0.1% (red open circles, line), 0.03% (open black squares, line), 0.05% (closed black squares, line), 0.07% (closed red circles, line), or 0.1% (closed blue triangles, line) CPC, 50 μL sucrose, and thermomixed at 37 °C for up to four hours. The dashed line at pH 5.5 marks the dissolution of enamel.</p>
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<p>Plaque regrowth (via optical density measurements) produced from human plaque treated with 0.001% (blue open triangles, line), 0.1% (red open circles, line), 0.03% (open black squares, line), 0.05% (closed black squares, line), 0.07% (closed red circles, line), or 0.1% (closed blue triangles, line) CPC at 37 °C for up to four hours.</p>
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<p>Plaque regrowth response as a function of CPC weight percent, including those recommended for antiplaque/antigingivits benefits.</p>
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<p>Plaque regrowth response as a function of NaF content. The range of NaF shown covers those levels in community water supplies (e.g., 0.1 ppm F) up to varnishes with 5% NaF.</p>
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13 pages, 1174 KiB  
Article
Exploring the Clinical Applications of Lemongrass Essential Oil: A Scoping Review
by Ikhwan Yuda Kusuma, Muhammad Iqbal Perdana, Csaba Vágvölgyi, Dezső Csupor and Miklós Takó
Pharmaceuticals 2024, 17(2), 159; https://doi.org/10.3390/ph17020159 - 25 Jan 2024
Cited by 1 | Viewed by 4318
Abstract
Lemongrass is a medicinal plant that produces essential oil with a variety of therapeutic properties. Although lemongrass essential oil (LGEO) is promising in clinical applications, the existing knowledge on the efficacy and safety of LGEO remains limited. This scoping review aimed to identify, [...] Read more.
Lemongrass is a medicinal plant that produces essential oil with a variety of therapeutic properties. Although lemongrass essential oil (LGEO) is promising in clinical applications, the existing knowledge on the efficacy and safety of LGEO remains limited. This scoping review aimed to identify, summarize, and synthesize existing literature related to the clinical applications of LGEO to provide an overview of its potential therapeutic benefits for patients. Three databases (PubMed, Web of Science, Scopus) were used following the PRISMA-ScR guidelines to find articles published between 1 January 2013, and 1 November 2022. A total of 671 records were identified and 8 articles were included in this scoping review. The majority of patients received oromucosal and topical treatment. The results of the studies suggest that LGEO might be a useful tool in the treatment of periodontitis, gingivitis and oral malodour, with similar efficacy to chlorhexidine (anti-gingivitis effect) and doxycycline (periodontitis). Additionally, LGEO has the potential for treating pityriasis versicolor and preventing skin aging and may have anti-dandruff effects. These findings not only underscore the diverse clinical potential of LGEO but also emphasize its comparable efficacy to established treatments. Further research is imperative to comprehensively evaluate LGEO’s effectiveness, safety, mechanisms of action, potential interactions with other medications, and its long-term tolerability across diverse populations. Full article
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<p>Chemical structures of the geometric isomers geranial (<b>A</b>) and neral (<b>B</b>).</p>
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<p>PRISMA flowchart diagram of article selection for a scoping review of the clinical use of lemongrass essential oil.</p>
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14 pages, 748 KiB  
Article
Antigingivitis and Antiplaque Effects of Oral Probiotic Containing the Streptococcus salivarius M18 Strain: A Randomized Clinical Trial
by Ksenia Babina, Dilara Salikhova, Vladlena Doroshina, Irina Makeeva, Alexandr Zaytsev, Matvey Uvarichev, Maria Polyakova and Nina Novozhilova
Nutrients 2023, 15(18), 3882; https://doi.org/10.3390/nu15183882 - 6 Sep 2023
Cited by 4 | Viewed by 2194
Abstract
We aimed to assess the effect of oral probiotic containing the Streptococcus salivarius M18 strain on gingival inflammation, bleeding on probing, and oral biofilm. Sixty-one consenting participants aged between 18 and 25 with gingivitis were recruited in this double-blind, parallel-group study and randomly [...] Read more.
We aimed to assess the effect of oral probiotic containing the Streptococcus salivarius M18 strain on gingival inflammation, bleeding on probing, and oral biofilm. Sixty-one consenting participants aged between 18 and 25 with gingivitis were recruited in this double-blind, parallel-group study and randomly divided into the probiotic group (n = 31) and the placebo group (n = 30). Fifty-seven participants completed the entire study protocol, 27 in the probiotic group and 30 in the placebo group. The outcomes were assessed after 4 weeks of intervention and 4 weeks of follow-up. There was a significant decrease in the Gingival Index, with the effect size of 0.58 [95%CI 0.05–1.10], and Turesky modification of the Quigley and Hein Plaque Index, with the effect size of 0.55 [95%CI: 0.02–1.07], in the probiotic group after the intervention. However, after a 4-week follow-up, the only significant treatment outcome was improved gingival condition according to the Gingival Index. The Gingival Bleeding Index also decreased significantly in the probiotic group after the intervention period; after the follow-up, this parameter did not differ significantly in both groups from the baseline values. In the placebo group, there were no significant improvements in the assessed parameters throughout this study. No serious side effects were registered. Within the limitations of this study, we conclude that the use of oral probiotic containing the Streptococcus salivarius M18 strain resulted in a significant improvement in gingival condition and oral hygiene level in young adults with gingivitis. Trial registration NCT05727436. Funding: none. Full article
(This article belongs to the Special Issue Effects of Probiotics on Inflammation and Health Outcomes)
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<p>Patient flow diagram.</p>
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<p>The mean trajectories of GI values in this study’s groups (vertical lines indicate standard deviations).</p>
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<p>The mean trajectories of TQHPI values in this study’s groups (vertical lines indicate standard deviations).</p>
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14 pages, 714 KiB  
Article
Antigingivitis, Desensitizing, and Antiplaque Effects of Alkaline Toothpastes: A Randomized Clinical Trial
by Nina Novozhilova, Elena Andreeva, Maria Polyakova, Irina Makeeva, Inna Sokhova, Vladlena Doroshina, Alexandr Zaytsev and Ksenia Babina
Dent. J. 2023, 11(4), 96; https://doi.org/10.3390/dj11040096 - 4 Apr 2023
Cited by 2 | Viewed by 3217
Abstract
Gingivitis is a widespread disease commonly associated with dentin hypersensitivity, that, in turn, may complicate routine dental care, leading to plaque accumulation. We aimed to assess the antigingivitis, desensitizing, and antiplaque effects of a fluoride-containing (TWF) alkaline toothpaste and a fluoride-free (TW) alkaline [...] Read more.
Gingivitis is a widespread disease commonly associated with dentin hypersensitivity, that, in turn, may complicate routine dental care, leading to plaque accumulation. We aimed to assess the antigingivitis, desensitizing, and antiplaque effects of a fluoride-containing (TWF) alkaline toothpaste and a fluoride-free (TW) alkaline toothpaste. Eighty-four consenting patients aged 20–25 years with diagnosed gingivitis and dentin hypersensitivity (DH) were recruited in this double-blind, parallel-group study and randomly divided into two groups (each n = 42). Eighty-two patients completed the entire study protocol. The outcomes were assessed after 4 weeks of intervention. A significant improvement in gingival condition was found according to the modified gingival index, with effect sizes of 0.99 [CI95%: 0.52–1.46] and 1.71 [CI95%: 1.18–2.24], and the gingival bleeding index, with effect sizes of 3.17 [CI95%: 2.39–3.94] and 2.64 [CI95%: 1.96–3.32] in the TW and TWF groups, respectively. DH also decreased in both groups, with a significantly greater reduction in the TWF group (effect sizes of 3.28 [CI95%: 2.51–4.04] and 3.10 [CI95%: 2.40–3.80] according to the visual analog scale and Schiff scale, respectively). No side effects were registered. In conclusion, the use of alkaline toothpaste provided a significant reduction in gingival inflammation and bleeding, DH, and oral hygiene after 4 weeks of daily use in young adults. Trial Registration: NCT0562376. Funding: none. Full article
(This article belongs to the Special Issue Preventive Dentistry and Dental Public Health)
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<p>Participant flow diagram.</p>
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20 pages, 2273 KiB  
Review
Evidence on the Use of Mouthwash for the Control of Supragingival Biofilm and Its Potential Adverse Effects
by Shoji Takenaka, Maki Sotozono, Naoto Ohkura and Yuichiro Noiri
Antibiotics 2022, 11(6), 727; https://doi.org/10.3390/antibiotics11060727 - 28 May 2022
Cited by 16 | Viewed by 7128
Abstract
Antimicrobial mouthwash improves supragingival biofilm control when used in conjunction with mechanical removal as part of an oral hygiene routine. Mouthwash is intended to suppress bacterial adhesion during biofilm formation processes and is not aimed at mature biofilms. The most common evidence-based effects [...] Read more.
Antimicrobial mouthwash improves supragingival biofilm control when used in conjunction with mechanical removal as part of an oral hygiene routine. Mouthwash is intended to suppress bacterial adhesion during biofilm formation processes and is not aimed at mature biofilms. The most common evidence-based effects of mouthwash on the subgingival biofilm include the inhibition of biofilm accumulation and its anti-gingivitis property, followed by its cariostatic activities. There has been no significant change in the strength of the evidence over the last decade. A strategy for biofilm control that relies on the elimination of bacteria may cause a variety of side effects. The exposure of mature oral biofilms to mouthwash is associated with several possible adverse reactions, such as the emergence of resistant strains, the effects of the residual structure, enhanced pathogenicity following retarded penetration, and ecological changes to the microbiota. These concerns require further elucidation. This review aims to reconfirm the intended effects of mouthwash on oral biofilm control by summarizing systematic reviews from the last decade and to discuss the limitations of mouthwash and potential adverse reactions to its use. In the future, the strategy for oral biofilm control may shift to reducing the biofilm by detaching it or modulating its quality, rather than eliminating it, to preserve the benefits of the normal resident oral microflora. Full article
(This article belongs to the Section Antibiofilm Strategies)
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<p>Oral biofilm and its niches.</p>
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<p>Biofilm formation and the therapeutic target for its control at each stage. The brown arrows indicate the channels that allow the transport of nutrients, waste products, and signaling molecules within the biofilm. The image is based on the process described by Costerton and Stewart in 2001 [<a href="#B38-antibiotics-11-00727" class="html-bibr">38</a>].</p>
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<p>Flow diagram of the screening and selection process.</p>
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<p>Schematic diagram of the clinical effects of mouthwashes against supragingival dental biofilm with strong evidence. The anti-biofilm property (1) has been proven to be effective, followed by the anti-gingivitis property (2), and their cariostatic actions are aimed at children and adolescents (3). There are no conclusive findings regarding the preventive effect of fluoride mouthwash alone on root caries.</p>
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<p>Posible adverse reactions inside the mature oral biofilm. Exposure of a mature oral biofilm to mouthwash is associated with several possible adverse reactions, such as the emergence of a resistant strain, effects of the residual structure, enhanced pathogenicity following retarded penetration, and ecological changes to the microbiota.</p>
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21 pages, 397 KiB  
Review
Recent Development of Active Ingredients in Mouthwashes and Toothpastes for Periodontal Diseases
by Meenakshi Rajendiran, Harsh M Trivedi, Dandan Chen, Praveen Gajendrareddy and Lin Chen
Molecules 2021, 26(7), 2001; https://doi.org/10.3390/molecules26072001 - 1 Apr 2021
Cited by 58 | Viewed by 10822
Abstract
Periodontal diseases like gingivitis and periodontitis are primarily caused by dental plaque. Several antiplaque and anti-microbial agents have been successfully incorporated into toothpastes and mouthwashes to control plaque biofilms and to prevent and treat gingivitis and periodontitis. The aim of this article was [...] Read more.
Periodontal diseases like gingivitis and periodontitis are primarily caused by dental plaque. Several antiplaque and anti-microbial agents have been successfully incorporated into toothpastes and mouthwashes to control plaque biofilms and to prevent and treat gingivitis and periodontitis. The aim of this article was to review recent developments in the antiplaque, anti-gingivitis, and anti-periodontitis properties of some common compounds in toothpastes and mouthwashes by evaluating basic and clinical studies, especially the ones published in the past five years. The common active ingredients in toothpastes and mouthwashes included in this review are chlorhexidine, cetylpyridinium chloride, sodium fluoride, stannous fluoride, stannous chloride, zinc oxide, zinc chloride, and two herbs—licorice and curcumin. We believe this comprehensive review will provide useful up-to-date information for dental care professionals and the general public regarding the major oral care products on the market that are in daily use. Full article
14 pages, 635 KiB  
Article
Toothpastes with Enzymes Support Gum Health and Reduce Plaque Formation
by Pune N. Paqué, Patrick R. Schmidlin, Daniel B. Wiedemeier, Florian J. Wegehaupt, Phoebe D. Burrer, Philipp Körner, Shengjile Deari, Michel-Angelo Sciotti and Thomas Attin
Int. J. Environ. Res. Public Health 2021, 18(2), 835; https://doi.org/10.3390/ijerph18020835 - 19 Jan 2021
Cited by 4 | Viewed by 4261
Abstract
Enzymes in toothpastes can support host immune responses, and thus maintain oral health. This study aimed to investigate gingival health and the plaque-reducing effects of enzyme-containing toothpastes. A laboratory study tested the antimicrobial potential of different enzyme-containing toothpaste formulations. Two promising formulations (enzyme-containing [...] Read more.
Enzymes in toothpastes can support host immune responses, and thus maintain oral health. This study aimed to investigate gingival health and the plaque-reducing effects of enzyme-containing toothpastes. A laboratory study tested the antimicrobial potential of different enzyme-containing toothpaste formulations. Two promising formulations (enzyme-containing toothpastes with glucose oxidase and D-glucose with (C+) and without Citrox (C−) Citrox) were investigated in a clinical crossover trial (two slurries: sodium lauryl sulfate-containing (SLS), a toothpaste without SLS (reference), and water). Subjects (n = 20) abstained from toothbrushing for four days and rinsed with a toothpaste slurry. Bleeding on probing (BOP) and plaque indices (PI) were measured. A mixed linear model was used to statistically compare the slurries with respect to BOP and PI change. The in vitro bacterial growth-inhibiting evaluation showed the best results for SLS, followed by C+ and C−. The change in BOP and PI exhibited statistically significant differences to water rinsing (BOP; PI changes in % points (difference of the baseline and post-rinse values: water = 8.8%; 90.0%; C+ = −1.4%; 80.4%; SLS = 1.5%; 72.1%; reference = 0.8%; 77.5%; C− = −1.8%; 75.1%). All slurries exhibited anti-gingivitis and anti-plaque effects, resulting in a prophylactic benefit for limited-access regions during brushing. Full article
(This article belongs to the Special Issue Oral and Dental Health)
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<p>The peroxidase system of the natural saliva defense system generates hydrogen peroxide by the enzyme glucose oxidase and initiates the oxidation of thiocyanate (SCN−) to hypothiocyanite (HOSCN/OSCN−) by the enzyme lactoperoxidase (LPO). The enzyme-containing toothpastes abstain from starch and amyloglucosidase for D-glucose delivery. D-Glucose was directly formulated in the toothpastes together with glucose oxidase. Thiocyanate and LPO are only added to the prototype 755 (see <a href="#ijerph-18-00835-t002" class="html-table">Table 2</a>). The prototypes 255, 258, and C58 rely on the endogenous salivary LPO and thiocyanate for the production of hypothiocyanite.</p>
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<p>Flow chart with details on subject enrollment and intervention in this study. <a href="#sec2dot2-ijerph-18-00835" class="html-sec">Section 2.2</a> (<a href="#sec2dot2dot1-ijerph-18-00835" class="html-sec">Section 2.2.1</a> &amp; <a href="#sec2dot2dot2-ijerph-18-00835" class="html-sec">Section 2.2.2</a>) Study Design.</p>
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<p>Representative oral splint applied during brushing to produce the foamy slurry of the test toothpastes and representative oral scan of the upper jaw (3Shape Trios, TRC; 3Shape, Copenhagen, Denmark) after four-day oral hygiene abstinence. The subjects were instructed to brush the rippled splint with the test toothpastes to avoid the actual mechanical intervention of the teeth.</p>
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<p>The boxplots of differences in bleeding on probing (BOP) after rinsing and at the baseline of each test toothpaste and the water application are presented for all the subjects (<span class="html-italic">n</span> = 20, colored), showing median percentages, 25th and 75th quartiles, standard deviation, and outliers. The data of both water runs, which were performed prior to the test phase, were averaged. C+ = enzyme-containing toothpaste with Citrox; SLS = SLS-containing reference toothpaste; placebo = reference toothpaste without SLS and without enzymes; C− = enzyme-containing toothpaste without Citrox; control = mean values after water rinsing.</p>
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<p>Boxplots of estimated means (plaque indices) of each test toothpaste and the water application of all the subjects (<span class="html-italic">n</span> = 20, colored) in percentage (%), showing median percentages, 25th and 75th quartiles, standard deviation, and outliers. The plaque indices of both water runs, which were performed prior to the test phase, were averaged. C+ = enzyme-containing toothpaste with Citrox; SLS = SLS-containing reference toothpaste; placebo = reference toothpaste without SLS and without enzymes; C− = enzyme-containing toothpaste without Citrox; control = mean values after water rinsing.</p>
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