%% BioMed_Central_Bib_Style_v1.01

\begin{thebibliography}{40}
% BibTex style file: bmc-mathphys.bst (version 2.1), 2014-07-24
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%%% 1
\bibitem{ref_article38}
\begin{barticle}
\bauthor{\bsnm{Kang}, \binits{Y.}},
\bauthor{\bsnm{Liu}, \binits{F.}},
\bauthor{\bsnm{Yang}, \binits{C.}},
\bauthor{\bsnm{Luo}, \binits{X.}},
\bauthor{\bsnm{Zhang}, \binits{T.}}:
\batitle{Color image steganalysis based on residuals of channel differences}.
\bjtitle{Computers, Materials \& Continua}
\bvolume{59},
\bfpage{315}--\blpage{329}
(\byear{2019}).
doi:\doiurl{10.32604/cmc.2019.05242}
\end{barticle}
\endbibitem

%%% 2
\bibitem{ref_article39}
\begin{barticle}
\bauthor{\bsnm{Shi}, \binits{L.}},
\bauthor{\bsnm{Wang}, \binits{Z.}},
\bauthor{\bsnm{Qian}, \binits{Z.}},
\bauthor{\bsnm{Huang}, \binits{N.}},
\bauthor{\bsnm{Puteaux}, \binits{P.}},
\bauthor{\bsnm{Zhang}, \binits{X.}}:
\batitle{Distortion function for emoji image steganography}.
\bjtitle{Computers, Materials \& Continua}
\bvolume{58},
\bfpage{943}--\blpage{953}
(\byear{2019}).
doi:\doiurl{10.32604/cmc.2019.05768}
\end{barticle}
\endbibitem

%%% 3
\bibitem{ref_article40}
\begin{barticle}
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\bauthor{\bsnm{Rice}, \binits{S.G.}},
\bauthor{\bsnm{Wang}, \binits{J.}},
\bauthor{\bsnm{Sun}, \binits{X.}}:
\batitle{A fusion steganographic algorithm based on faster r-cnn}.
\bjtitle{Computers, Materials and Continua}
\bvolume{55},
\bfpage{1}--\blpage{16}
(\byear{2018}).
doi:\doiurl{10.3970/cmc.2018.055.001}
\end{barticle}
\endbibitem

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\begin{botherref}
\oauthor{\bsnm{Holub}, \binits{V.}},
\oauthor{\bsnm{Fridrich}, \binits{J.}}:
Low-complexity features for jpeg steganalysis using undecimated dct.
IEEE Transactions on Information Forensics \& Security
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219--228
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\begin{botherref}
\oauthor{\bsnm{waveslim}}:
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\bibitem{ref_article3}
\begin{barticle}
\bauthor{\bsnm{Holub}, \binits{V.}},
\bauthor{\bsnm{Fridrich}, \binits{J.}},
\bauthor{\bsnm{Denemark}, \binits{T.}}:
\batitle{Universal distortion function for steganography in an arbitrary
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\bjtitle{Eurasip Journal on Information Security}
\bvolume{1}(\bissue{1}),
\bfpage{1}
(\byear{2014})
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%%% 7
\bibitem{ref_article4}
\begin{bchapter}
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\batitle{Uniform embedding for efficient jpeg steganography}.
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\bvolume{9}(\bissue{5}),
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\endbibitem

%%% 9
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\begin{botherref}
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\oauthor{\bsnm{Shi}, \binits{Y.}}:
Using statistical image model for jpeg steganography: Uniform embedding
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%%% 11
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\bauthor{\bsnm{Rui}, \binits{D.}}:
\batitle{Detecting lsb steganography in color, and gray-scale images}.
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Lsb matching revisited.
IEEE Signal Processing Letters
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A steganographic method for images by pixel-value differencing.
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\bauthor{\bsnm{Huang}, \binits{F.}},
\bauthor{\bsnm{Huang}, \binits{J.}}:
\batitle{Edge adaptive image steganography based on lsb matching revisited}.
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(\byear{2010})
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%%% 15
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\begin{botherref}
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IEEE Transactions on Information Forensics \& Security,
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%%% 18
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\begin{barticle}
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\batitle{Effect of quantum noise on deterministic remote state preparation of
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%%% 19
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A novel quantum image steganography algorithm based on exploiting modification
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\begin{barticle}
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\bauthor{\bsnm{{Xu}}, \binits{G.}},
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\batitle{Quantum image steganography protocol based on quantum image expansion
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\begin{barticle}
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%%% 25
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%%% 26
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\begin{barticle}
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%%% 29
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%%% 37
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\end{thebibliography}

\newcommand{\BMCxmlcomment}[1]{}

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<refgrp>

<bibl id="B1">
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  <aug>
    <au><snm>Kang</snm><fnm>Y</fnm></au>
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  <lpage>329</lpage>
</bibl>

<bibl id="B2">
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    <au><snm>Shi</snm><fnm>L</fnm></au>
    <au><snm>Wang</snm><fnm>Z</fnm></au>
    <au><snm>Qian</snm><fnm>Z</fnm></au>
    <au><snm>Huang</snm><fnm>N</fnm></au>
    <au><snm>Puteaux</snm><fnm>P</fnm></au>
    <au><snm>Zhang</snm><fnm>X</fnm></au>
  </aug>
  <source>Computers, Materials \& Continua</source>
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</bibl>

<bibl id="B3">
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<bibl id="B4">
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</bibl>

<bibl id="B5">
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</bibl>

<bibl id="B6">
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} % end of \BMCxmlcomment
