Just fixing grammar in comments.

--HG--
extra : convert_revision : svn%3Afdd8eb12-d10e-0410-9acb-85c331704f74/trunk%403459

dlib/algs.h

@@ -515,7 +515,7 @@ namespace dlib
     /*!A is_built_in_scalar_type
         
         This is a template that allows you to determine if the given type is a built
-        in scalar type such as an int, char, float, short, etc...
+        in scalar type such as an int, char, float, short, etc.
 
         For example, is_built_in_scalar_type<char>::value == true
         For example, is_built_in_scalar_type<std::string>::value == false 

dlib/bigint/bigint_kernel_1.h

@@ -354,7 +354,7 @@ namespace dlib
                 - rhs != 0 
                 - result->size >= lhs->digits_used 
                 - remainder->size >= lhs->digits_used 
-                - each parameter is unique (i.e. lhs != result, lhs != remainder, etc...)
+                - each parameter is unique (i.e. lhs != result, lhs != remainder, etc.)
             ensures
                 - result == lhs / rhs
                 - remainder == lhs % rhs

dlib/bigint/bigint_kernel_2.h

@@ -380,7 +380,7 @@ namespace dlib
                 - rhs != 0 
                 - result->size >= lhs->digits_used 
                 - remainder->size >= lhs->digits_used 
-                - each parameter is unique (i.e. lhs != result, lhs != remainder, etc...)
+                - each parameter is unique (i.e. lhs != result, lhs != remainder, etc.)
             ensures
                 - result == lhs / rhs
                 - remainder == lhs % rhs

dlib/cmd_line_parser/cmd_line_parser_kernel_abstract.h

@@ -179,7 +179,7 @@ namespace dlib
                 - argv == an array of strings that was obtained from the second argument 
                           of the function main().
                           (i.e. argv[0] should be the <program> token, argv[1] should be
-                          an <options> or <arg> token, etc...)
+                          an <options> or <arg> token, etc.)
                 - argc == the number of strings in argv
             ensures
                 - parses the command line given by argc and argv 

dlib/dir_nav/dir_nav_kernel_abstract.h

@@ -35,7 +35,7 @@ namespace dlib
         ensures
             - #roots == a queue containing directories that represent all the roots 
               of the filesystem on this machine.   (e.g. in windows you have c:\, d:\ 
-              etc...)
+              etc.)
         throws
             - std::bad_alloc
     !*/

dlib/entropy_decoder_model/entropy_decoder_model_kernel_4.h

@@ -95,7 +95,7 @@ namespace dlib
                         - The "child context set" of a node is a set of nodes with
                           contexts that are one symbol longer and prefixed by the node's 
                           context.  For example, if a node has a context "abc" then the 
-                          nodes for contexts "abca", "abcb", "abcc", etc... are all in 
+                          nodes for contexts "abca", "abcb", "abcc", etc. are all in 
                           the child context set of the node.
                         - The "parent context" of a node is the context that is one 
                           symbol shorter than the node's context and includes the 

dlib/entropy_decoder_model/entropy_decoder_model_kernel_5.h

@@ -101,7 +101,7 @@ namespace dlib
                         - The "child context set" of a node is a set of nodes with
                           contexts that are one symbol longer and prefixed by the node's 
                           context.  For example, if a node has a context "abc" then the 
-                          nodes for contexts "abca", "abcb", "abcc", etc... are all in 
+                          nodes for contexts "abca", "abcb", "abcc", etc. are all in 
                           the child context set of the node.
                         - The "parent context" of a node is the context that is one 
                           symbol shorter than the node's context and includes the 

dlib/entropy_encoder_model/entropy_encoder_model_kernel_4.h

@@ -92,7 +92,7 @@ namespace dlib
                         - The "child context set" of a node is a set of nodes with
                           contexts that are one symbol longer and prefixed by the node's 
                           context.  For example, if a node has a context "abc" then the 
-                          nodes for contexts "abca", "abcb", "abcc", etc... are all in 
+                          nodes for contexts "abca", "abcb", "abcc", etc. are all in 
                           the child context set of the node.
                         - The "parent context" of a node is the context that is one 
                           symbol shorter than the node's context and includes the 

dlib/entropy_encoder_model/entropy_encoder_model_kernel_5.h

@@ -101,7 +101,7 @@ namespace dlib
                         - The "child context set" of a node is a set of nodes with
                           contexts that are one symbol longer and prefixed by the node's 
                           context.  For example, if a node has a context "abc" then the 
-                          nodes for contexts "abca", "abcb", "abcc", etc... are all in 
+                          nodes for contexts "abca", "abcb", "abcc", etc. are all in 
                           the child context set of the node.
                         - The "parent context" of a node is the context that is one 
                           symbol shorter than the node's context and includes the 

dlib/gui_core/gui_core_kernel_abstract.h

@@ -730,7 +730,7 @@ namespace dlib
                   typematic action begins (note that some keys might not have any 
                   typematic action on some platforms).
                 - if (is_printable) then
-                    - key == the character that was pressed. (e.g. 'a', 'b', '1' etc...)
+                    - key == the character that was pressed. (e.g. 'a', 'b', '1' etc.)
                     - this is a printable character.  Note that ' ', '\t', and 
                       '\n' (this is the return/enter key) are all considered printable.
                 - else

dlib/lzp_buffer/lzp_buffer_kernel_abstract.h

@@ -87,7 +87,7 @@ namespace dlib
             ensures
                 - updates the prediction for the current context.
                   (the current context is the last few symbols seen. i.e. (*this)[0], 
-                   (*this)[1], etc...)
+                   (*this)[1], etc.)
                 - if (*this can generate a prediction) then
                     - #index == the predicted location of a match in the history buffer.
                       (i.e. (*this)[#index] is the first symbol of the predicted match)

dlib/matrix/matrix_math_functions.h

@@ -114,7 +114,7 @@ DLIB_MATRIX_SIMPLE_STD_FUNCTION(atan,7)
         const matrix_exp<EXP>& m
     )
     {
-        // you can only round matrices that contain built in scalar types like double, long, float, etc...
+        // you can only round matrices that contain built in scalar types like double, long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
         typedef matrix_scalar_binary_exp<EXP,typename EXP::type, op_round_zeros> exp;
         return exp(m.ref(),10*std::numeric_limits<typename EXP::type>::epsilon());
@@ -128,7 +128,7 @@ DLIB_MATRIX_SIMPLE_STD_FUNCTION(atan,7)
         typename EXP::type eps 
     )
     {
-        // you can only round matrices that contain built in scalar types like double, long, float, etc...
+        // you can only round matrices that contain built in scalar types like double, long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
         return matrix_scalar_binary_exp<EXP,typename EXP::type, op_round_zeros>(m.ref(),eps);
     }
@@ -417,7 +417,7 @@ DLIB_MATRIX_SIMPLE_STD_FUNCTION(atan,7)
         const matrix_exp<EXP>& m
     )
     {
-        // you can only round matrices that contain built in scalar types like double, long, float, etc...
+        // you can only round matrices that contain built in scalar types like double, long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
         typedef matrix_unary_exp<EXP,op_round> exp;
         return exp(m.ref());

dlib/matrix/matrix_math_functions_abstract.h

@@ -234,7 +234,7 @@ namespace dlib
     /*!
         requires
             - is_built_in_scalar_type<matrix_exp::type>::value == true
-              (i.e. m must contain a type like int, float, double, long, etc...)
+              (i.e. m must contain a type like int, float, double, long, etc.)
         ensures
             - if (m contains integers) then
                 - returns m unmodified
@@ -282,7 +282,7 @@ namespace dlib
     /*!
         requires
             - is_built_in_scalar_type<matrix_exp::type>::value == true
-              (i.e. m must contain a type like int, float, double, long, etc...)
+              (i.e. m must contain a type like int, float, double, long, etc.)
         ensures
             - if (m contains integers) then
                 - returns m unmodified
@@ -307,7 +307,7 @@ namespace dlib
     /*!
         requires
             - is_built_in_scalar_type<matrix_exp::type>::value == true
-              (i.e. m must contain a type like int, float, double, long, etc...)
+              (i.e. m must contain a type like int, float, double, long, etc.)
         ensures
             - returns a matrix R such that:
                 - R::type == the same type that was in m

dlib/matrix/matrix_utilities.h

@@ -982,7 +982,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_lessthan>(m.ref(),s);
@@ -998,7 +998,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_lessthan>(m.ref(),s);
@@ -1035,7 +1035,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_lessthan_eq>(m.ref(),s);
@@ -1051,7 +1051,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_lessthan_eq>(m.ref(),s);
@@ -1088,7 +1088,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_greaterthan>(m.ref(),s);
@@ -1104,7 +1104,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_greaterthan>(m.ref(),s);
@@ -1141,7 +1141,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_greaterthan_eq>(m.ref(),s);
@@ -1157,7 +1157,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_greaterthan_eq>(m.ref(),s);
@@ -1194,7 +1194,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_equal_to>(m.ref(),s);
@@ -1210,7 +1210,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT( is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_equal_to>(m.ref(),s);
@@ -1247,7 +1247,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_not_equal_to>(m.ref(),s);
@@ -1263,7 +1263,7 @@ namespace dlib
     )
     {
         // you can only use this relational operator with the built in scalar types like
-        // long, float, etc...
+        // long, float, etc.
         COMPILE_TIME_ASSERT(is_built_in_scalar_type<typename EXP::type>::value);
 
         return matrix_scalar_binary_exp<EXP,S, op_not_equal_to>(m.ref(),s);

dlib/queue/queue_kernel_2.h

@@ -46,7 +46,7 @@ namespace dlib
                     out->item[out_pos] == current()
 
                     when enqueuing elements inside each node item[0] is filled first, then 
-                    item[1], then item[2], etc...
+                    item[1], then item[2], etc.
                                                          
 
                     each node points to the node inserted after it except for the most 

dlib/sequence/sequence_kernel_abstract.h

@@ -126,7 +126,7 @@ namespace dlib
                 ensures
                     - item has been concatenated onto the end of *this 
                       i.e. item[0] becomes (#*this)[size()], item[1] 
-                      becomes (#*this)[size()+1], etc...
+                      becomes (#*this)[size()+1], etc.
                     - #size() == size() + item.size() 
                     - #item has its initial value 
                     - #at_start() == true

dlib/sockets/sockets_kernel_2.cpp

@@ -106,7 +106,7 @@ namespace dlib
 
             // loop over all the addrinfo structures and add them to the set.  the reason for doing
             // this dumb crap is because different platforms return all kinds of weird garbage.  many
-            // return the same ip multiple times, etc...
+            // return the same ip multiple times, etc.
             while (result != 0)
             {
                 char temp[16];

dlib/svm/kernel_abstract.h

@@ -431,7 +431,7 @@ namespace dlib
     {
         /*!
             REQUIREMENTS ON T
-                T must be a kernel object (e.g. radial_basis_kernel, polynomial_kernel, etc...) 
+                T must be a kernel object (e.g. radial_basis_kernel, polynomial_kernel, etc.) 
 
             WHAT THIS OBJECT REPRESENTS
                 This object represents a kernel with a fixed value offset

dlib/svm/null_trainer_abstract.h

@@ -19,7 +19,7 @@ namespace dlib
         /*!
             REQUIREMENTS ON dec_funct_type
                 dec_funct_type can be any copyable type that provides the needed 
-                typedefs used below (e.g. kernel_type, scalar_type, etc...).
+                typedefs used below (e.g. kernel_type, scalar_type, etc.).
 
             WHAT THIS OBJECT REPRESENTS
                 This object is a simple tool for turning a decision function