2014
DOI: 10.1016/j.saa.2014.01.136
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Studies the alterations of biochemical and mineral contents in bone tissue of mus musculus due to aluminum toxicity and the protective action of desferrioxamine and deferiprone by FTIR, ICP-OES, SEM and XRD techniques

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Cited by 25 publications
(16 citation statements)
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“…4 ). There are several diffraction peaks, which clearly belong to the characteristic peaks of calcium phosphate, calcium carbonate, octacalcium phosphate and calcium magnesium phosphate, respectively [ 34 ], which reveal that the crystalline structure of DCB and MC1 was poor.…”
Section: Resultsmentioning
confidence: 99%
“…4 ). There are several diffraction peaks, which clearly belong to the characteristic peaks of calcium phosphate, calcium carbonate, octacalcium phosphate and calcium magnesium phosphate, respectively [ 34 ], which reveal that the crystalline structure of DCB and MC1 was poor.…”
Section: Resultsmentioning
confidence: 99%
“…Band assignment Calcite ~ 2513 ν1 (CO 3 2− symmetric stretching) + ν3 (CO 3 2− asymmetric stretching) and/or 2ν2 (O-C-O out-of-plane bending) + ν4 (C-O in-plane bending) [47] ~ 1791 ν1 + ν4 [47,48] ~ 1422 ν3 [48] ~ 878 ν2 [48] ~ 709 ν4 [48] Tile dust ~ 1079 Asymmetric si-o stretching [49,50] ~ 796 and 775 Symmetric si-o stretching [50,51] ~ 694 Si-O symmetric bending [50] ~ 648 Tetrahedral ring vibration [52] ~ 467 Si-O-Si bending [49,50] Sticky rice ~ 3700-3000 O-H stretching of carboxylic acids and polysaccharides [53][54][55] ~ 2929 Aliphatic C-H stretching in CH 2 and CH 3 groups of carboxylic acids and esters in polysaccharides [53][54][55] ~ 1652 Asymmetric -COO stretching [55] C = O symmetric stretching (amide I) [53,54] Water molecules absorbed in the amorphous region [56] ~ 1533 N-H in-plane bending vibration strongly coupled to C-N stretching vibration of protein (amide II) [53,57] ~ 1457 CH 2 group scissoring modes [53] ~ 1419 −CH 2 bending and symmetric −COO stretch [55,58] ~ 1371 CH deformation or CH 2 vibration [59] ~ 1338 −CCH and −OCH coupled bend CH 2 rocking vibration [59] ~ 1241 CH 2 OH (side chain) related mode [59] ~ 1155 Vibrations of the glucosidic C-O-C bond and the whole glucose ring [58] ~ 1082 C-O-H bend vibration [59] Crystalline regions of starch [58] ~ 1019 Amorphous regions of starch [58] ~ 928 Skeletal mode vibrations of α(1 → 4) skeletal glycosidic linkage …”
Section: Ftirmentioning
confidence: 99%
“…The defensive activity at the below leaves is more abundant than that of the above leaves. [16,19] Amide I 1700-1600 Amide I due to C=O stretching of α-helix protein [16,18] C-O Stretching lignin and hemicellulose 1300-1200 C-C, C-O skeletal [17,20] C-O-C glycoside 1103 C-O-C glycoside ether mainly hemicellulose [19] C-C , C-O Stretching 1022, 1047, 1080 Mainly C-O-C of polysaccharides [20,21] Two-dimensional PCA analyses in above and below rice leaves were presented on Figure 3. The blue points representing control treatment, scattered widely on the right side of the graph area, could easily be discriminated from the red points of the SA-treated one, with both above and below rice leaves ( Figure 3A and 3B).…”
Section: Biochemical Characteristics Between Two Rice Leaf Positionsmentioning
confidence: 99%