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PhD.aux
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\@writefile{lof}{\contentsline {figure}{\numberline {1.4}{\ignorespaces A \emph {Brachyhypopomus pinnicaudatus} electrocyte. Taken from \cite {stoddard2008signal}. }}{10}{figure.1.4}}
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\@writefile{lof}{\contentsline {figure}{\numberline {1.6}{\ignorespaces Two types of electroreceptors: an ampullary receptor on the left (this shape is common to Mormyrids and Gymnotiforms) and a tuberous one on the right (this shape of organ is from Gymnotiforms). Sensitive cells are indicated by {}``sc'' and the afferent neurons are noted {}``n''. Taken from \cite {moller1995electric}. }}{11}{figure.1.6}}
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\newlabel{fig:electroreceptor}{{\M@TitleReference {1.6}{Electroreceptors}}{11}{Two types of electroreceptors: an ampullary receptor on the left (this shape is common to Mormyrids and Gymnotiforms) and a tuberous one on the right (this shape of organ is from Gymnotiforms). Sensitive cells are indicated by {}``sc'' and the afferent neurons are noted {}``n''. Taken from \cite {moller1995electric}}{figure.1.6}{}}
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\@writefile{lof}{\contentsline {figure}{\numberline {1.7}{\ignorespaces Location of the receptors according to the order: \emph {A. albifrons} is a Gymnotiform (each dot represents an ampullary organ - the tuberous ones show the same repartition but are simply in a higher number) and \emph {G. petersii} belongs to the Mormyrifoms order (the receptors are situated in the shaded area). Taken from \cite {moller1995electric}. }}{12}{figure.1.7}}
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\@writefile{lof}{\contentsline {figure}{\numberline {1.8}{\ignorespaces Behavior of \emph {G. carapo} in the presence of a dipole, with two different geometries. Full lines correspond to pathway followed by the fish during an essay ($N$ is the number of essays) and doted lines are stremlines of the electric field. Taken from\nobreakspace {}\cite {davis1988behavioural}.}}{12}{figure.1.8}}
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\newlabel{fig:behavior_passive_electro-location}{{\M@TitleReference {1.8}{Passive electro-location}}{12}{Behavior of \emph {G. carapo} in the presence of a dipole, with two different geometries. Full lines correspond to pathway followed by the fish during an essay ($N$ is the number of essays) and doted lines are stremlines of the electric field. Taken from~\cite {davis1988behavioural}}{figure.1.8}{}}
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\@writefile{lof}{\contentsline {figure}{\numberline {1.9}{\ignorespaces (A) Experimental evidence of distance measurement by a \emph {Gnathonemus petersii}. On the left: experimental setup. The fish is forced to enter one of two gates where objects $S^{+}$ and $S^{-}$ are placed. These objects only differ by their distance $D$ with respect to the gate. If the first one is chosen, the fish is rewarded (by feeding) and if not, the fish is punished (by disturbing it). On the right is plotted the rate of correct choice as a function of $D$. The objects $S^{+}$ and $S^{-}$ are metallic sphere with a volume of $33.5$ cm$^{3}$. (Taken from \cite {von1993electric}). \\ (B) Experimental evidence of shape discrimination by individuals of the same specie. The experimental setup is the same, except that the difference between the objects is now their shape: one is a metallic cube whereas the other is a metallic cylinder. (Taken from \cite {gerhard}). }}{13}{figure.1.9}}
\citepageref{von1993electric}{13}
\citepageref{gerhard}{13}
\newlabel{fig:distance_discrimination}{{\M@TitleReference {1.9}{Active electro-location}}{13}{(A) Experimental evidence of distance measurement by a \emph {Gnathonemus petersii}. On the left: experimental setup. The fish is forced to enter one of two gates where objects $S^{+}$ and $S^{-}$ are placed. These objects only differ by their distance $D$ with respect to the gate. If the first one is chosen, the fish is rewarded (by feeding) and if not, the fish is punished (by disturbing it). On the right is plotted the rate of correct choice as a function of $D$. The objects $S^{+}$ and $S^{-}$ are metallic sphere with a volume of $33.5$ cm$^{3}$. (Taken from \cite {von1993electric}). \protect \\ (B) Experimental evidence of shape discrimination by individuals of the same specie. The experimental setup is the same, except that the difference between the objects is now their shape: one is a metallic cube whereas the other is a metallic cylinder. (Taken from \cite {gerhard})}{figure.1.9}{}}
\citepageref{lissmann1958mechanism}{13}
\citepageref{lannoo1993electric}{13}
\citepageref{toerring1979motor}{13}
\citepageref{moller1995electric}{13}
\citation{lissmann1958mechanism}
\citation{bacher1983}
\citation{rasnow1996simple}
\@writefile{lof}{\contentsline {figure}{\numberline {1.10}{\ignorespaces PMA: behavior exhibited by mormyrids (\emph {Marcusenius cyprinoides }and \emph {Gnathonemus petersii}) when introducing a metallic - or plastic - object (showed by the black dot). 1.\nobreakspace {}chin probing 2a.\nobreakspace {}lateral ``va-et-vient'' 2b.\nobreakspace {}radial ``va-et-vient'' 3.\nobreakspace {}lateral probing 4.\nobreakspace {}tangential probing 5.\nobreakspace {}stationary probing. Taken from \cite {toerring1984locomotor}.}}{14}{figure.1.10}}
\citepageref{toerring1984locomotor}{14}
\newlabel{fig:pma}{{\M@TitleReference {1.10}{Active electro-location}}{14}{PMA: behavior exhibited by mormyrids (\emph {Marcusenius cyprinoides }and \emph {Gnathonemus petersii}) when introducing a metallic - or plastic - object (showed by the black dot). 1.~chin probing 2a.~lateral ``va-et-vient'' 2b.~radial ``va-et-vient'' 3.~lateral probing 4.~tangential probing 5.~stationary probing. Taken from \cite {toerring1984locomotor}}{figure.1.10}{}}
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\citepageref{lissmann1958mechanism}{14}
\citepageref{lissmann1958mechanism}{14}
\citepageref{bacher1983}{14}
\citepageref{rasnow1996simple}{14}
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\citation{assad1998electric}
\citation{assad1999electric}
\citation{heiligenberg1975theoretical}
\citation{hoshimiya1980theapteronotus}
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