Phosphate and amide III mapping in sialoliths with Raman microspectroscopy

被引:11
|
作者
Kinoshita, H. [2 ]
Miyoshi, N. [1 ]
Miyoshi, K. [2 ]
Ogawa, T. [2 ]
Ogasawara, T. [2 ]
Kitagawa, Y. [3 ]
Itoh, H. [1 ]
Sano, K. [2 ]
机构
[1] Univ Fukui, Div Tumor Pathol, Dept Etiol & Pathol Med, Sch Med, Fukui 9101193, Japan
[2] Univ Fukui, Div Dent & Oral Surg, Dept Sensory & Locomotor Med, Sch Med, Fukui 9101193, Japan
[3] Hokkaido Univ, Dept Oral Pathol Sci, Grad Sch Dent Med, Sapporo, Hokkaido 0608586, Japan
关键词
phosphate mapping; amide III mapping; sialolith; Raman spectroscopy;
D O I
10.1002/jrs.1812
中图分类号
O433 [光谱学];
学科分类号
0703 ; 070302 ;
摘要
Sialoliths, a cause of the salivary gland infection, are reported to be composed of inorganic and organic substances. However, the precise mechanism of sialolith formation remains unclear. The purpose of this report is to elucidate this mechanism by analyzing the precise distribution of phosphate (an inorganic substance) and amide III (an organic substance) in sialoliths by using Raman microspectroscopy. Sialoliths from the submandibular gland duct were analyzed by this form of observation and by a scanning electron microscope (SEM) equipped with an energy-dispersive X-ray spectroscope (EDX). In Raman microspectroscopy we analyzed the spectral peak of the phosphate (PO43-) symmetric stretching vibrational mode (nu(1)) at 960 cm(-1) and that of amide III at 1265 cm(-1) to demonstrate the mapping of an image of these elements showing a semiquantitative distribution of phosphate and amide III in the sialoliths. It was found that phosphate and amide III were concentrated at the center of the sialoliths, and the phosphate distribution in the sialoliths showed concentric laminations. These results indicated the possibility that the sialoliths originated from a nidus of organic materials and progressively grew by the deposition of layers of organic and inorganic materials. Copyright (C) 2008 John Wiley & Sons, Ltd.
引用
收藏
页码:349 / 353
页数:5
相关论文
共 50 条
  • [41] Identification of oral bacteria by Raman microspectroscopy
    Berger, AJ
    Zhu, QY
    JOURNAL OF MODERN OPTICS, 2003, 50 (15-17) : 2375 - 2380
  • [42] Analysis of human hair by Raman microspectroscopy
    Plascencia-Castro, A. S.
    Cordova-Fraga, T.
    Pina-Ruiz, A. L.
    Hernandez-Rayas, A.
    Bernal, J. J.
    BIOMEDICAL IMAGING AND SENSING CONFERENCE, 2017, 10251
  • [43] An Optical Model for Quantitative Raman Microspectroscopy
    Hollis, Joseph Razzell
    Rheingold, David
    Bhartia, Rohit
    Beegle, Luther W.
    APPLIED SPECTROSCOPY, 2020, 74 (06) : 684 - 700
  • [44] PROTEIN SECONDARY STRUCTURE-ANALYSIS USING RAMAN AMIDE-I AND AMIDE-III SPECTRA
    WILLIAMS, RW
    METHODS IN ENZYMOLOGY, 1986, 130 : 311 - 331
  • [45] Analysis of Human Lenses by Raman Microspectroscopy
    Paluszkiewicz, C.
    Chaniecki, P.
    Rekas, M.
    Rajchel, B.
    Piergies, N.
    Kwiatek, W. M.
    ACTA PHYSICA POLONICA A, 2016, 129 (02) : 244 - 246
  • [46] Identification of water pathogens by Raman microspectroscopy
    Kusic, Dragana
    Kampe, Bernd
    Roesch, Petra
    Popp, Juergen
    WATER RESEARCH, 2014, 48 : 179 - 189
  • [47] Raman microspectroscopy of phthalocyanines in living cells
    Arzhantsev, SY
    Otto, C
    Ruzmetov, DA
    Sijtsema, NM
    Greve, J
    Chikishev, AY
    IZVESTIYA AKADEMII NAUK SERIYA FIZICHESKAYA, 1996, 60 (03): : 136 - 141
  • [48] Raman Microspectroscopy and Imaging of Filamentous Fungi
    Shigeto, Shinsuke
    Takeshita, Norio
    MICROBES AND ENVIRONMENTS, 2022, 37 (06)
  • [49] POLARIZATION SELECTIVE RAMAN MICROSPECTROSCOPY.
    Inoue, Yasuo
    Nishimura, Tadashi
    Akasaka, Yoichi
    Mitsubishi Electric Advance, 1987, 41 : 28 - 31
  • [50] Raman microspectroscopy of a silicon solar cell
    Ganesan, Jeya Prakash
    Iqbal, Nafis
    Krsmanovic, Milos
    Davila, Fernand Torres
    Dickerson, Andrew
    Davis, Kristopher O.
    Tetard, Laurene
    Banerjee, Parag
    2021 IEEE 48TH PHOTOVOLTAIC SPECIALISTS CONFERENCE (PVSC), 2021, : 1014 - 1017