Put \@ in front of \ldots{} ending sentence

chapters/synchronous.tex

@@ -348,7 +348,16 @@ \section{Clock Constructors}\label{clock-constructors}
 Clock(intervalCounter=$\mathit{intervalCounter}$, resolution=$\mathit{resolution}$)
 \end{lstlisting}\end{synopsis}
 \begin{semantics}
-\firstuse{Rational interval clock}.  The first input argument, $\mathit{intervalCounter}$, is a clocked Component Expression (see \cref{argument-restrictions-component-expression}) or a parameter expression of type \lstinline!Integer! with \lstinline!min = 0!.  The optional second argument $\mathit{resolution}$ (defaults to 1) is a parameter expression of type \lstinline!Integer! with \lstinline!min = 1! and \lstinline!unit = "Hz"!.  If $\mathit{intervalCounter}$ is a parameter expression with value zero, the period of the clock is derived by clock inference, see \cref{sub-clock-inferencing}.   The result is of base type \lstinline!Clock! that ticks when \lstinline!time! becomes $t_{\mathrm{start}}$, $t_{\mathrm{start}} + \mathit{interval}_{1}$, $t_{\mathrm{start}} + \mathit{interval}_{1} + \mathit{interval}_{2}$, \ldots{}  The clock starts at the start of the simulation $t_{\mathrm{start}}$ or when the controller is switched on.  At the start of the simulation, \lstinline!previous($\mathit{intervalCounter}$)! = \lstinline!$\mathit{intervalCounter}$.start! and the clocks ticks the first time.  At the first clock tick $\mathit{intervalCounter}$ must be computed and the second clock tick is then triggered at $\mathit{interval}_{1} = \mathit{intervalCounter}/\mathit{resolution}$. At the second clock tick at time $t_{\mathrm{start}} + \mathit{interval}_{1}$, a new value for $\mathit{intervalCounter}$ must be computed and the next clock tick is scheduled at $\mathit{interval}_{2} = \mathit{intervalCounter}/\mathit{resolution}$, and so on. If
+\firstuse{Rational interval clock}.
+The first input argument, $\mathit{intervalCounter}$, is a clocked Component Expression (see \cref{argument-restrictions-component-expression}) or a parameter expression of type \lstinline!Integer! with \lstinline!min = 0!.
+The optional second argument $\mathit{resolution}$ (defaults to 1) is a parameter expression of type \lstinline!Integer! with \lstinline!min = 1! and \lstinline!unit = "Hz"!.
+If $\mathit{intervalCounter}$ is a parameter expression with value zero, the period of the clock is derived by clock inference, see \cref{sub-clock-inferencing}.
+The result is of base type \lstinline!Clock! that ticks when \lstinline!time! becomes $t_{\mathrm{start}}$, $t_{\mathrm{start}} + \mathit{interval}_{1}$, $t_{\mathrm{start}} + \mathit{interval}_{1} + \mathit{interval}_{2}$, \@\ldots{}
+The clock starts at the start of the simulation $t_{\mathrm{start}}$ or when the controller is switched on.
+At the start of the simulation, \lstinline!previous($\mathit{intervalCounter}$)! = \lstinline!$\mathit{intervalCounter}$.start! and the clocks ticks the first time.
+At the first clock tick $\mathit{intervalCounter}$ must be computed and the second clock tick is then triggered at $\mathit{interval}_{1} = \mathit{intervalCounter}/\mathit{resolution}$.
+At the second clock tick at time $t_{\mathrm{start}} + \mathit{interval}_{1}$, a new value for $\mathit{intervalCounter}$ must be computed and the next clock tick is scheduled at $\mathit{interval}_{2} = \mathit{intervalCounter}/\mathit{resolution}$, and so on.
+If
 interval % This should be "intervalCounter", right?
 is a parameter expression, the clock defines a periodic clock.
 
@@ -387,7 +396,14 @@ \section{Clock Constructors}\label{clock-constructors}
 Clock(interval=$\mathit{interval}$)
 \end{lstlisting}\end{synopsis}
 \begin{semantics}
-\firstuse{Real interval clock}.  The input argument, $\mathit{interval}$, is a clocked Component Expression (see \cref{argument-restrictions-component-expression}) or a parameter expression.  The $\mathit{interval}$ must be strictly positive ($\mathit{interval} > 0$) of type \lstinline!Real! with \lstinline!unit = "s"!.   The result is of base type \lstinline!Clock! that ticks when \lstinline!time! becomes $t_{\mathrm{start}}$, $t_{\mathrm{start}} + \mathit{interval}_{1}$, $t_{\mathit{start}} + \mathit{interval}_{1} + \mathit{interval}_{2}$, \ldots{}  The clock starts at the start of the simulation $t_{\mathrm{start}}$ or when the controller is switched on.  Here the next clock tick is scheduled at $\mathit{interval}_{1}$ = \lstinline!previous($\mathit{interval}$)! = \lstinline!$\mathit{interval}$.start!.  At the second clock tick at time $t_{\mathrm{start}} + \mathit{interval}_{1}$, the next clock tick is scheduled at $\mathit{interval}_{2}$ = \lstinline!previous($\mathit{interval}$)!, and so on.  If $\mathit{interval}$ is a parameter expression, the clock defines a periodic clock.
+\firstuse{Real interval clock}.
+The input argument, $\mathit{interval}$, is a clocked Component Expression (see \cref{argument-restrictions-component-expression}) or a parameter expression.
+The $\mathit{interval}$ must be strictly positive ($\mathit{interval} > 0$) of type \lstinline!Real! with \lstinline!unit = "s"!.
+The result is of base type \lstinline!Clock! that ticks when \lstinline!time! becomes $t_{\mathrm{start}}$, $t_{\mathrm{start}} + \mathit{interval}_{1}$, $t_{\mathit{start}} + \mathit{interval}_{1} + \mathit{interval}_{2}$, \@\ldots{}
+The clock starts at the start of the simulation $t_{\mathrm{start}}$ or when the controller is switched on.
+Here the next clock tick is scheduled at $\mathit{interval}_{1}$ = \lstinline!previous($\mathit{interval}$)! = \lstinline!$\mathit{interval}$.start!.
+At the second clock tick at time $t_{\mathrm{start}} + \mathit{interval}_{1}$, the next clock tick is scheduled at $\mathit{interval}_{2}$ = \lstinline!previous($\mathit{interval}$)!, and so on.
+If $\mathit{interval}$ is a parameter expression, the clock defines a periodic clock.
 
 \begin{nonnormative}
 Note, the clock is defined with \lstinline!previous($\mathit{interval}$)!.  Therefore, for sorting the input argument is treated as known.  The given interval and time shift can be modified by using the \lstinline!subSample!, \lstinline!superSample!, \lstinline!shiftSample! and \lstinline!backSample! operators on the returned clock, see \cref{sub-clock-conversion-operators}.  There are restrictions where this operator can be used, see \lstinline!Clock! expressions below.