apply --reverse: tie it all together.

diff --git a/Documentation/git-read-tree.txt b/Documentation/git-read-tree.txt
index 1f21d95684a476a7e771ef166536415b5fe81a3c..11bd9c0adc5517ef1aadc76abdb8dfb0827c27b0 100644 (file)
--- a/Documentation/git-read-tree.txt
+++ b/Documentation/git-read-tree.txt
@@ -214,7 +214,7 @@ The `git-write-tree` command refuses to write a nonsensical tree, and it
 will complain about unmerged entries if it sees a single entry that is not
 stage 0.
 
-Ok, this all sounds like a collection of totally nonsensical rules,
+OK, this all sounds like a collection of totally nonsensical rules,
 but it's actually exactly what you want in order to do a fast
 merge. The different stages represent the "result tree" (stage 0, aka
 "merged"), the original tree (stage 1, aka "orig"), and the two trees
@@ -235,7 +235,7 @@ populated.  Here is an outline of how the algorithm works:
 
 - the index file saves and restores with all this information, so you
   can merge things incrementally, but as long as it has entries in
-  stages 1/2/3 (ie "unmerged entries") you can't write the result. So
+  stages 1/2/3 (i.e., "unmerged entries") you can't write the result. So
   now the merge algorithm ends up being really simple:
 
   * you walk the index in order, and ignore all entries of stage 0,
@@ -266,7 +266,7 @@ file that does not match stage 2.
 This is done to prevent you from losing your work-in-progress
 changes, and mixing your random changes in an unrelated merge
 commit.  To illustrate, suppose you start from what has been
-commited last to your repository:
+committed last to your repository:
 
 ----------------
 $ JC=`git-rev-parse --verify "HEAD^0"`