Table 3.
Authors (Year) | Type of the Study | Aim of the Study | Materials | Results |
---|---|---|---|---|
Al-Amri et al. (2021) [69] | Study in vitro | The enamel exposed to sweet drinks undergoes microscopic changes due to -pH, -time of exhibition, and -other ingredients in the drinks. |
three sets of extracted teeth immersed: -in sweet drinks and -in saliva presented, with the use of a profilometer, alterations in tooth surface roughness. |
Exposure to sweet drinks increased surface roughness on teeth. |
Arafa et al. (2022) [70] | Study in vitro | Dental dentin and enamel respond to carbonated soft drinks. | After one week of exposure to soft drinks, teeth showed, microscopically and with X-ray microdiffraction analysis, a wide range of enamel decay. | Soft drinks caused high erosive effect on the enamel surface of teeth, while milk showed no difference from saliva. |
Charpe et al. (2019) [59] | Study in vitro | Assess and contrast the solubility of tooth enamel after exposure to alcoholic beverages across various time periods. | Three distinct beverages were tested for enamel solubility at various time intervals, with extracted teeth. Calcium released into the drinks was analyzed and determined using a semi-automatic analyzer and the Calcium Reagent Set. | Considerable mean calcium is lost beacause of -soft drinks and -beer, whiskey and hard drinks. |
Gotouda et al. (2017) [61] | Study in vitro | Reaction of different types of dentin and enamel to carbonated beverages. | X-ray microdiffraction analysis showed a wide range of white stain areas in the enamel, ranging from barely perceptible to nearly complete decay. | This research provides fundamental crystallographic information that will soon be used in preventive dentistry. |
Kono et al. (2019) [71] | Study in vitro | Micro-FTIR spectroscopic analysis of teeth sections to clarify chemical processes of dental caries. | X-ray microdiffraction analysis showed a wide range of white stain areas in the enamel, ranging from barely perceptible to nearly complete decay. | This study demonstrated the range and normalcy of dental enamel features. |
Manaswini et al. (2020) [72] | Study in vitro | This study’s objective was to compare the mineral loss and surface microhardness of enamel exposed to carbonated drinks with and without calcium glycerophosphate (CaGP). | The surface microhardness of 40 samples of enamel was assessed to determine mineral loss, using -four cycles of intermittent blotting and -spectrophotometric analysis |
The decline in the enamel’s surface microhardness and mineral loss were both dramatically halted by the addition of CaGP to the carbonated drinks. |
Panic et al. (2019) [62] | Study in vitro | Ascertain how carbonated beverages affected enamel and dentin at various times. | SEM was used to assess and take pictures of 20 samples after: -60 min, -24 h, and -7 days of exposure to the drinks. ANOVA was used to examine the data. |
The pH values of the drinks were below the critical pH of the enamel: after as little as 60 min of exposure there were signs of erosion. |
Paula et al. (2019) [73] | Study in vitro | Evaluation of: -pH, -acidity, and -erosive potential of juices. |
|
Juices have an acidic pH, which can lead to erosiveness. |
Ramya et al. (2020) [74] | Study in vitro | Examine how soft drinks affect removed teeth’s demineralization. |
|
Carbonated and non-carbonated drinks have different effects on tooth structure. |
Shroff et al. (2018) [39] | Study in vitro | erosive potential 20 drinks should be evaluated. |
|
The experimental beverages had higher acidity values than the packaged fruit juices, resulting in significantly different weight loss after 6 and 24 h of immersion in carbonated beverages. |
Sooksompien et al. (2022) [75] | Study in vitro |
|
Soft drinks acid pH caused changes on the enamel surfaces. |