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authorGravatar Guillaume Melquiond <guillaume.melquiond@inria.fr>2015-01-06 17:57:44 +0100
committerGravatar Guillaume Melquiond <guillaume.melquiond@inria.fr>2015-01-06 17:57:55 +0100
commitbf16900f43c1291136673e7614587fe51eebc88f (patch)
treeedc8a80c3c2145aa6a68c9cad63c6f42ef0d6d47 /doc/refman
parent2b00f74f104586c8d8b205161320e850efa91268 (diff)
Fix some documentation typos.
Diffstat (limited to 'doc/refman')
-rw-r--r--doc/refman/Polynom.tex15
1 files changed, 8 insertions, 7 deletions
diff --git a/doc/refman/Polynom.tex b/doc/refman/Polynom.tex
index a2c09b824..974a56247 100644
--- a/doc/refman/Polynom.tex
+++ b/doc/refman/Polynom.tex
@@ -288,7 +288,7 @@ the following property:
The syntax for adding a new ring is {\tt Add Ring $name$ : $ring$
-($mod_1$,\dots,$mod_2$)}. The name is not relevent. It is just used
+($mod_1$,\dots,$mod_2$)}. The name is not relevant. It is just used
for error messages. The term $ring$ is a proof that the ring signature
satisfies the (semi-)ring axioms. The optional list of modifiers is
used to tailor the behavior of the tactic. The following list
@@ -314,7 +314,7 @@ describes their syntax and effects:
\item[constants [\ltac]] specifies a tactic expression that, given a term,
returns either an object of the coefficient set that is mapped to
the expression via the morphism, or returns {\tt
- InitialRing.NotConstant}. The default behaviour is to map only 0 and
+ InitialRing.NotConstant}. The default behavior is to map only 0 and
1 to their counterpart in the coefficient set. This is generally not
desirable for non trivial computational rings.
\item[preprocess [\ltac]]
@@ -470,7 +470,8 @@ correctness theorem to well-chosen arguments.
The {\tt field} tactic is an extension of the {\tt ring} to deal with
-rational expresision. Given a rational expression $F=0$. It first reduces the expression $F$ to a common denominator $N/D= 0$ where $N$ and $D$ are two ring
+rational expression. Given a rational expression $F=0$. It first reduces the
+expression $F$ to a common denominator $N/D= 0$ where $N$ and $D$ are two ring
expressions.
For example, if we take $F = (1 - 1/x) x - x + 1$, this gives
$ N= (x -1) x - x^2 + x$ and $D= x$. It then calls {\tt ring}
@@ -539,7 +540,7 @@ Reset Initial.
$D_2$. This way, polynomials remain in factorized form during the
fraction simplifications. This yields smaller expressions when
reducing to the same denominator since common factors can be
- cancelled.
+ canceled.
\item {\tt field\_simplify [\term$_1$ {\ldots} \term$_n$]}
performs the simplification in the conclusion of the goal using
@@ -627,11 +628,11 @@ denominator during the normalization process. These expressions must
be proven different from zero for the correctness of the algorithm.
The syntax for adding a new field is {\tt Add Field $name$ : $field$
-($mod_1$,\dots,$mod_2$)}. The name is not relevent. It is just used
+($mod_1$,\dots,$mod_2$)}. The name is not relevant. It is just used
for error messages. $field$ is a proof that the field signature
satisfies the (semi-)field axioms. The optional list of modifiers is
-used to tailor the behaviour of the tactic. Since field tactics are
-built upon ring tactics, all mofifiers of the {\tt Add Ring}
+used to tailor the behavior of the tactic. Since field tactics are
+built upon ring tactics, all modifiers of the {\tt Add Ring}
apply. There is only one specific modifier:
\begin{description}
\item[completeness \term] allows the field tactic to prove