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1 iofilm pH was below the threshold for dentin demineralization).
2 ibitors (PIs), has been associated with bone demineralization.
3 ones and its implementation can lead to bone demineralization.
4 dogenous lead exposure due to increased bone demineralization.
5 , the use of fluoride toothpaste, and enamel demineralization.
6 ncy and that calcium intake may prevent bone demineralization.
7 s model in describing the kinetics of enamel demineralization.
8 enamel mineral may modify the rate of enamel demineralization.
9 ing the need for increased attention to bone demineralization.
10 of an acid-resistant layer was observed with demineralization.
11 promote a pathogenic environment, leading to demineralization.
12 wever, Fer cannot interfere with enamel acid demineralization.
13 urements of gap, bacterial infiltration, and demineralization.
14 gh a decrease in pH and impairment of enamel demineralization.
15 al models that exhibited different levels of demineralization.
16 n of the biofilm and the risk of root dentin demineralization.
17 ity of adhesive displacement" for biological demineralization.
18 dentin caries process at the early phases of demineralization.
19 le extant bone extractions, with and without demineralization.
20 rachitic changes and a five-point scale for demineralization.
21 lendronate, but the substance was removed by demineralization.
22 rtical and medullary tissues remaining after demineralization.
23 emia included marked overgrowth (5), diffuse demineralization (1), angular deformity (1) and length d
24 eptapeptide library increased the rate of Fe demineralization 3-fold (p<0.001), similarly to a mutati
28 ils strongly inhibit the differentiation and demineralization activity of osteoclasts and lead to pro
29 oxed mice had reduced osteoclast numbers and demineralization activity, whereas those from the caAcvr
31 pends below the minimum for dentin or enamel demineralization and 2) the conversion of the biofilm fr
32 and spectroscopic analyses indicated dentin demineralization and adhesive penetration throughout the
34 capacity for the prevention of teeth enamel demineralization and cytotoxicity in vitro were also det
35 bone mass, as observed in humans, via rapid demineralization and decreased bone formation, independe
39 preserved specimens, the approach using EDTA demineralization and protease-mix proteolysis yielded a
40 ce between pathological factors that lead to demineralization and protective factors that lead to rem
42 ve also shown that the depth and severity of demineralization and the thickness of the highly mineral
44 o that present in the original bone prior to demineralization, and the re-calcified bone is palpably
45 dentists to areas of interest and potential demineralization, and to provide longitudinal quantified
47 D deficiency, rachitic changes and definite demineralization are uncommon and fracture risk is low.
48 significantly contribute to the progress of demineralization around the margins, while fluoride rele
49 n solution for 192 h resulted in significant demineralization at noninfiltrated histologic points but
51 ide protection of the underlying dentin from demineralization because of cracks and macroscopic voids
52 radiography showed typical enamel subsurface demineralization before cyclic demineralization/reminera
54 Keywords: CT, Informatics, Skeletal-Axial, Demineralization-Bone, Comparative Studies, Segmentation
55 puter Aided Diagnosis (CAD), MRI, CT, Spine, Demineralization-Bone, Feature Detection Supplemental ma
56 protein extraction method that does not use demineralization but instead uses a methodology from hyd
57 content of calcium (Ca) after 15 seconds of demineralization, but the Ca content increased after 180
58 nce of F-containing toothpaste in enamel re-/demineralization by varying the frequency of carbohydrat
59 eins from the extracellular matrix; however, demineralization can be a slow process that restricts su
61 Previous studies have demonstrated that bone demineralization can improve consolidation in bone graft
62 ged spaceflight induces muscle atrophy, bone demineralization, cardiovascular deconditioning, and ort
63 prediction of coronary artery diseases, bone demineralization, chronic obstructive pulmonary diseases
64 ndicated a decrease in the driving force for demineralization compared with that seen with the contro
68 ized gingival recessions, and 2) citric acid demineralization does not affect the clinical outcome of
70 e other hand, the antimicrobial capacity and demineralization effects were found between the test gro
73 alidity of using scattering power to measure demineralization has been confirmed by a three-dimension
76 er-modified surface may be more resistant to demineralization; hence, many investigators are proposin
77 stallized surface layer showed resistance to demineralization; however, the layer did not provide pro
78 osteoblast cells than for the other times of demineralization in all periods of cell culture (P < 0.0
80 ymethyl chitosan (QCMC)-based extrafibrillar demineralization in improving resin-dentin bond durabili
82 uate the effect, if any, of citric acid root demineralization in the outcome of subepithelial connect
94 g) recovery using existing techniques vs new demineralization method: 58% vs 78%; N(org) recovery: 60
96 ralization induced by biological or chemical demineralization models was measured using confocal lase
97 not uncommon in CKD and is linked with bone demineralization, muscle catabolism, and higher risks of
102 c acid is efficacious and distinctive in the demineralization of dentinal root surfaces for periodont
103 tering coefficient that result directly from demineralization of enamel are observed and simplifying
104 onomers employed exhibit a limited extent of demineralization of enamel in comparison to phosphoric a
105 s investigation was to compare the extent of demineralization of enamel slabs in situ, with a sugar-b
107 simultaneously for oil-water separation and demineralization of organic pollutants from the separate
110 unity of the oral cavity, protecting against demineralization of teeth (i.e. dental caries), a highly
115 This study investigated the effect of acid demineralization of the graft-bed interface on graft con
116 l studies have demonstrated that citric acid demineralization of the root surface promotes tissue att
117 ates degradation of the interfacial bond and demineralization of the tooth by recruiting the pioneer
120 C) technique to investigate the acid-induced demineralization of these tissues at a relative undersat
121 s in acidification of the plaque biofilm and demineralization of tooth enamel, marking the onset of d
122 omise quality of life and is associated with demineralization of tooth structure by organic acids pro
124 about bone proteins that may be lost during demineralization or with the use of denaturing agents.
131 ed-measures analysis of variance showed that demineralization period and adhesive type and their inte
133 isphosphonate use and to examine whether the demineralization process removes alendronate from allogr
134 o decrease biofilm accumulation, inhibit the demineralization process, to be used for remineralizing
136 Wet and dry bonding with the QCMC-based demineralization produced tensile bond strengths equival
137 fluence of adhesives and marginal sealing on demineralization progress using optical coherence tomogr
139 al uses and may model regulators of ferritin demineralization rates in vivo or peptide regulators of
143 tivity was localized; dramatic escalation of demineralization-remineralization dynamics is the likely
145 se specimens were then treated with a cyclic demineralization/remineralization regimen for 30 days.
146 el subsurface demineralization before cyclic demineralization/remineralization treatment, and signifi
148 t types of degradation that can occur (i.e., demineralization, resin hydrolysis, and collagen degrada
154 The treated samples were submerged in the demineralization solution and the pH was measured using
156 ry of the SOM fraction solubilized in the HF demineralization solution via solid-phase extraction.
157 m, a chelate-and-rinse extrafibrillar dentin demineralization strategy has been developed that keeps
158 ether, the new chitosan-based extrafibrillar demineralization strategy retains intrafibrillar mineral
162 the continuum from the first atomic level of demineralization, through the initial enamel or root les
165 on of bone proteins has relied on the use of demineralization to better retrieve proteins from the ex
168 mp extract (SME) obtained from the mild-acid demineralization treatment of shrimp shells to produce c
169 grees C and 50 bar for 10-60 min followed by demineralization using citric acid, bleaching using hydr
171 t when the subjects used a F toothpaste, net demineralization was evident only with the seven- and 10
172 at the biofilm pH is below the threshold for demineralization was more pronounced for dentin than for
173 othpaste was used, statistically significant demineralization was observed when the frequency exceede
178 the same DS(En) and acid activity, rates of demineralization were the same in the acetic and propion
180 d in groups (n = 9) according to the time of demineralization with citric acid (50%, pH 1): 15, 30, 9
181 This study investigated the effects of bone demineralization with citric acid (CA) and tetracycline
182 ese surface modification techniques involves demineralization with citric acid or treatment with tetr
183 oradiography (MRG) showed significantly less demineralization with the H(3)PO(4) cavity surface treat