Update of /project/gsharp/cvsroot/gsharp/Doc In directory clnet:/tmp/cvs-serv8538
Modified Files: linebreak.tex plans.tex Log Message: Fixed a few typos.
--- /project/gsharp/cvsroot/gsharp/Doc/linebreak.tex 2004/02/16 15:46:28 1.1.1.1 +++ /project/gsharp/cvsroot/gsharp/Doc/linebreak.tex 2007/06/30 16:50:34 1.2 @@ -85,7 +85,7 @@ Recomputing the measures of a segment is a complicated operation. First music events that occur simultaneously must be grouped together into \emph{timelines}. Then the spacing between timelines must be -computed. Such spacing is a monotonically increason function of the +computed. Such spacing is a monotonically increasing function of the temporal distance, but the function is usually not linear.
Based on the spacing between timelines, measures are then grouped into @@ -134,10 +134,10 @@ The \emph{natural width} of a timeline with temporal distance $d$ to the next timeline (or to the end of the measure) in a line on which the smallest temporal distance is $d_{min}$ is defined as -$s_{min} (d / d_min) ^ k$. +$s_{min} (d / d_{min}) ^ k$.
The \emph{natural width} of a measure is the sum of the natural widths -of each timeline of the measure plus $s_min$. The reason for the +of each timeline of the measure plus $s_{min}$. The reason for the additional term is that this much space must be inserted before the first timeline of the measure.
@@ -178,7 +178,7 @@
The advantage of using normalized widths is twofold. First, the normalized with of a measure is independent of $d_{min}$, so it is a -property intrinsic to the measure and not dependendt on the line on +property intrinsic to the measure and not dependent on the line on which it is located. This information can be computed once and for all when a measure is recomputed by redisplay. Second, as redisplay accumulates measures into potential lines, the sum of the normalized @@ -191,7 +191,7 @@ If modification information is kept on a segment by segment basis, we typically only have to recompute the measures within a segment at each invocation of redisplay. Thus, even for arbitrarily large -scores, we are able to obtain a sequence of mesures each with its +scores, we are able to obtain a sequence of measures each with its normalized width and its $d_{min}$ in a time proportional to the size of a segment.
@@ -212,7 +212,7 @@ available for music material and compute the penalty as the maximum of the compression factor and the stretch factor.
-To compute the natural hieght of a page, several methods can be used. +To compute the natural height of a page, several methods can be used. The simplest is to consider a line to take up space proportional to the number of staves, lyric lines and other components, and to add the space taken up by each line to obtain the natural height of the page. @@ -350,7 +350,7 @@ operations. For all simple operations such as insertion or deletion of a single note, our computation is very fast.
-\section{Conclusions and Futur Work} +\section{Conclusions and Future Work}
We have described an incremental method for computing optimal line breaks in an interactive editor for musical scores. While it should --- /project/gsharp/cvsroot/gsharp/Doc/plans.tex 2006/08/02 02:47:17 1.4 +++ /project/gsharp/cvsroot/gsharp/Doc/plans.tex 2007/06/30 16:50:34 1.5 @@ -60,7 +60,7 @@ upper voice and (say) the lower staff line for the lower voice rather than, as now, having all rests inserted by default on the middle staff line. It would be nice if a layer had a default staff line for rests -so that changing hte layer automatically changes the default staff +so that changing the layer automatically changes the default staff line for rests.
\subsection{Default stem direction for a layer} @@ -249,4 +249,4 @@ \item remove dead code \item remove reasons for remarks such as XXX:, FIXME, etc, or at least put a name in their place -\end{itemize} \ No newline at end of file +\end{itemize}