diff --git a/doc/paper3/LLADD.tex b/doc/paper3/LLADD.tex
index 694158f..03040e8 100644
--- a/doc/paper3/LLADD.tex
+++ b/doc/paper3/LLADD.tex
@@ -590,7 +590,7 @@ system.
 \includegraphics[%
   viewport=0bp 0bp 458bp 225bp,
   clip,
-  width=1\columnwidth]{figs/structure}
+  width=1\columnwidth]{figs/structure.pdf}
 {\caption{\label{fig:structure} The portions of \yad that directly interact with new operations.  Arrows point in the direction of data flow.}}
 \vspace{-12pt}
 \end{figure}
@@ -798,7 +798,7 @@ overhead to be negligible.
 \includegraphics[%
   viewport=-1bp 0bp 460bp 225bp,
   clip,
-  width=1\columnwidth]{figs/lsn-estimation}
+  width=1\columnwidth]{figs/lsn-estimation.pdf}
 \caption{\label{fig:lsn-estimation}LSN estimation.  If a page was not mentioned in the log, it must have been up-to-date on disk.  RecLSN is the LSN of the entry that caused the page to become dirty.  Subtracting one gives us a safe estimate of the page LSN.}
 \vspace{-12pt}
 \end{figure}
@@ -934,7 +934,7 @@ logically consistent.
 \includegraphics[%
   viewport=0bp 0bp 445bp 308bp,
   clip,
-  width=1\columnwidth]{figs/torn-page}
+  width=1\columnwidth]{figs/torn-page.pdf}
 \caption{\label{fig:torn}Torn pages and LSN-free recovery.
 The page is torn during the crash, but consistent once redo completes.
 Overwritten sectors are shaded.}
@@ -1049,7 +1049,7 @@ perform similarly to comparable monolithic implementations.
 \graphdbg{\includegraphics[%
     viewport=-26bp 28bp 625bp 360bp, 
     clip,
-   width=1\columnwidth]{figs/bulk-load}}
+   width=1\columnwidth]{figs/bulk-load.pdf}}
 \caption{\label{fig:BULK_LOAD} Performance of \yad and Berkeley DB hash table implementations.  The
 test is run as a single transaction, minimizing synchronous log writes.}
 \end{figure}
@@ -1058,7 +1058,7 @@ test is run as a single transaction, minimizing synchronous log writes.}
 \graphdbg{\includegraphics[%
     viewport=-43bp 45bp 490bp 370bp, 
     clip,
-   width=1\columnwidth]{figs/tps-extended}}
+   width=1\columnwidth]{figs/tps-extended.pdf}}
 \caption{\label{fig:TPS} High-concurrency hash table performance.  Our Berkeley DB test can only support 50 threads (see text).
 \vspace{-16pt}
 }
@@ -1104,13 +1104,13 @@ as a baseline for our experiments.
 \graphdbg{\includegraphics[%
     viewport=-25bp 19bp 625bp 400bp, 
     clip,
-    width=1\columnwidth]{figs/object-diff}}
+    width=1\columnwidth]{figs/object-diff.pdf}}
 \hspace{.2in}
 \graphdbg{\includegraphics[%
 %    viewport=-25bp 23bp 425bp 330bp, 
     viewport=-40bp 28bp 450bp 315bp, 
     clip,
-    width=1\columnwidth]{figs/mem-pressure}}
+    width=1\columnwidth]{figs/mem-pressure.pdf}}
 \caption{\label{fig:OASYS}
 The effect of \yad object-persistence optimizations under low and high memory pressure.}
 \vspace{-12pt}
@@ -1157,7 +1157,7 @@ produce, not the performance of our own highly tuned implementation.
 Both Berkeley DB and \yad can service concurrent calls to commit with
 a single synchronous I/O.
 \yad scaled quite well, delivering over 6000 transactions per
-second,%\endnote{The concurrency test was run without lock managers, and the
+second, %\endnote{The concurrency test was run without lock managers, and the
 %  transactions obeyed the A, C, and D properties.  Since each
 %  transaction performed exactly one hash table write and no reads, they also
 %  obeyed I (isolation) in a trivial sense.}  
@@ -1275,7 +1275,7 @@ the implementation is encouraging.
 
 \label{sec:logging}
 \begin{figure}
-\graphdbg{\includegraphics[width=1\columnwidth]{figs/graph-traversal}}
+\graphdbg{\includegraphics[width=1\columnwidth]{figs/graph-traversal.pdf}}
 %\vspace{-12pt}
 \caption{\label{fig:multiplexor} Locality-based request reordering.
 Requests are partitioned into queues.  Queue are handled
@@ -1362,7 +1362,7 @@ the naive traversal.
 \begin{figure}[t]
 \graphdbg{\includegraphics[%
     viewport=-13bp 19bp 600bp 280bp, 
-    width=1\columnwidth]{figs/oo7}}
+    width=1\columnwidth]{figs/oo7.pdf}}
 %\vspace{-12pt}
 \caption{\label{fig:oo7} OO7 benchmark style graph traversal.  The optimization performs well due to the presence of non-local nodes.}
 %\vspace{-12pt}
@@ -1372,7 +1372,7 @@ the naive traversal.
 \graphdbg{\includegraphics[%
   viewport=-10bp 10bp 525bp 346bp,
   clip,
-width=1\columnwidth]{figs/trans-closure-hotset}}
+  width=1\columnwidth]{figs/trans-closure-hotset.pdf}}
 %\vspace{-12pt}
 \caption{\label{fig:hotGraph} Hot-set based graph traversal for random
 graphs with out-degrees of 3 and 9.  The multiplexer
@@ -1445,14 +1445,14 @@ could address.  However, it is unclear whether a single interface or
 conceptual mapping would meet their needs.  Based on experiences with
 their system, the authors of StreamBase argue that ``one size fits
 all'' database engines are no longer appropriate.  Instead, they argue that
-the market will ``fracture into a collection of independent ... engines''~\cite{oneSizeFitsAll}.  This is in contrast to the RISC
+the market will ``fracture into a collection of independent...engines''~\cite{oneSizeFitsAll}.  This is in contrast to the RISC
 approach, which attempts to build a database in terms of
 interchangeable parts.
 
 We agree with the motivations behind RISC databases and StreamBase,
-and believe they complement each other and \yad well.  However, or
+and believe they complement each other and \yad well.  However, our
 goal differs from these systems; we want to support applications that
-are a poor fit for database systems.  However, as \yad matures we we
+are a poor fit for database systems.  As \yad matures we 
 hope that it will enable a wide range of transactional systems,
 including improved DBMSs.
 
diff --git a/doc/paper3/Stasis-CameraReady.pdf b/doc/paper3/Stasis-CameraReady.pdf
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diff --git a/doc/paper3/Stasis-html.tar.gz b/doc/paper3/Stasis-html.tar.gz
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