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Esteban Blanc
proview
Commits
964a98e5
Commit
964a98e5
authored
Oct 19, 2010
by
Claes Sjofors
Browse files
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Plain Diff
Xtt loggning, conditional logging with expression added
parent
ee80c893
Changes
11
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Showing
11 changed files
with
885 additions
and
571 deletions
+885
-571
src/doc/man/en_us/man_opg.dat
src/doc/man/en_us/man_opg.dat
+12
-1
src/doc/man/sv_se/man_opg.dat
src/doc/man/sv_se/man_opg.dat
+11
-1
src/lib/co/src/co_ccm.c
src/lib/co/src/co_ccm.c
+688
-523
src/lib/co/src/co_ccm.h
src/lib/co/src/co_ccm.h
+12
-1
src/lib/co/src/co_lng.cpp
src/lib/co/src/co_lng.cpp
+2
-0
xtt/exe/rt_xtt/gtk/rt_xtt_gtk.cpp
xtt/exe/rt_xtt/gtk/rt_xtt_gtk.cpp
+3
-2
xtt/lib/ge/src/ge_curve.cpp
xtt/lib/ge/src/ge_curve.cpp
+1
-1
xtt/lib/xtt/gtk/xtt_sevhist_gtk.cpp
xtt/lib/xtt/gtk/xtt_sevhist_gtk.cpp
+1
-1
xtt/lib/xtt/src/xtt_logging.cpp
xtt/lib/xtt/src/xtt_logging.cpp
+147
-38
xtt/lib/xtt/src/xtt_logging.h
xtt/lib/xtt/src/xtt_logging.h
+5
-0
xtt/lib/xtt/src/xtt_xnav.cpp
xtt/lib/xtt/src/xtt_xnav.cpp
+3
-3
No files found.
src/doc/man/en_us/man_opg.dat
View file @
964a98e5
...
@@ -1142,9 +1142,20 @@ to file. At fast time critical sequences, you can increase the buffer size to av
...
@@ -1142,9 +1142,20 @@ to file. At fast time critical sequences, you can increase the buffer size to av
interruption when the buffer i written to file.
interruption when the buffer i written to file.
<h2>Conditional logging
<h2>Conditional logging
In 'Condition
Parameter
' a digital attribute controlling the logging can be specified. The
In 'Condition' a digital attribute controlling the logging can be specified. The
logging is only performed when the ConditionParameter is true.
logging is only performed when the ConditionParameter is true.
It is also possible to insert an expression into 'Condition'. The expression starts with
'expr' followed by the condition enclosed with parenthesis. In the expression, attribute values
can be fetched with the GetA function for analog attributes, GetD function for digital
attributes and GetI function for integer attribute.
<b>Expression example
expr( GetD("H1-H2-Dv1.ActualValue") && GetA("H1-H2-Av2.ActualValue") > 2.5)
The logging is performed when the Dv 'H1-H2-Dv1' is true and the Av 'H1-H2-Av2' is
larger than 2.5.
<h2>Store
<h2>Store
The logging configuration is stored with the 'Store' button, and can be restored later
The logging configuration is stored with the 'Store' button, and can be restored later
with the 'Restore' button.
with the 'Restore' button.
...
...
src/doc/man/sv_se/man_opg.dat
View file @
964a98e5
...
@@ -1129,9 +1129,19 @@ snabba tidskritiska f
...
@@ -1129,9 +1129,19 @@ snabba tidskritiska f
att störningar som kan uppstå när bufferten skrivs på fil.
att störningar som kan uppstå när bufferten skrivs på fil.
<h2>Villkorlig loggning
<h2>Villkorlig loggning
I 'Condition
Parameter'
kan man ange ett digitalt attribut som styr loggningen. Loggning
I 'Condition kan man ange ett digitalt attribut som styr loggningen. Loggning
sker enbart om ConditionParameter är sann.
sker enbart om ConditionParameter är sann.
Man kan även ange ett uttryck i 'Condition. Uttrycket startar med 'expr' följt av
villkoret omgivet av parenteser. I villkoret kan man hämta upp attribut-värden med
GetA funktionen för analoga attribut, GetD funktionen för digitala attribut och GetI
funktionen för heltals attribut.
<b>Exempel
expr( GetD("H1-H2-Dv1.ActualValue") && GetA("H1-H2-Av2.ActualValue") > 2.5)
Loggningen utförs när Dv'n 'H1-H2-Dv1' är 1 och Av'n 'H1-H2-Av2' är större en 2.5.
<h2>Lagra
<h2>Lagra
Logg konfigureringen kan sparas med 'Store' knappen, för att återskapas vid ett senare
Logg konfigureringen kan sparas med 'Store' knappen, för att återskapas vid ett senare
tillfälle med 'Restore' knappen.
tillfälle med 'Restore' knappen.
...
...
src/lib/co/src/co_ccm.c
View file @
964a98e5
...
@@ -1845,77 +1845,87 @@ int ccm_operate_exec(
...
@@ -1845,77 +1845,87 @@ int ccm_operate_exec(
exit_function_found
=
0
;
exit_function_found
=
0
;
if
(
next
==
NULL
)
if
(
next
==
NULL
)
{
{
if
(
!
op
->
result_done
)
if
(
!
op
->
result_done
)
{
{
switch
(
op
->
value_decl
)
{
if
(
op
->
value_decl
==
K_DECL_FLOAT
)
case
K_DECL_FLOAT
:
op
->
result_float
=
op
->
value_float
;
op
->
result_float
=
op
->
value_float
;
else
if
(
op
->
value_decl
==
K_DECL_INT
)
break
;
case
K_DECL_INT
:
op
->
result_int
=
op
->
value_int
;
op
->
result_int
=
op
->
value_int
;
else
break
;
default:
strcpy
(
op
->
result_string
,
op
->
value_string
);
strcpy
(
op
->
result_string
,
op
->
value_string
);
}
op
->
result_decl
=
op
->
value_decl
;
op
->
result_decl
=
op
->
value_decl
;
}
}
}
}
else
else
{
{
if
(
op
->
type
==
K_OPERAND_NO
)
if
(
op
->
type
==
K_OPERAND_NO
)
{
{
if
(
!
next
->
result_done
)
if
(
!
next
->
result_done
)
{
{
if
(
next
->
type
==
K_OPERAND_NAME
)
if
(
next
->
type
==
K_OPERAND_NAME
)
{
{
sts
=
ccm_getvar
(
funcctx
,
next
->
name
,
&
next
->
value_decl
,
sts
=
ccm_getvar
(
funcctx
,
next
->
name
,
&
next
->
value_decl
,
&
next
->
value_float
,
&
next
->
value_int
,
&
next
->
value_float
,
&
next
->
value_int
,
next
->
value_string
);
next
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
if
(
next
->
value_decl
==
K_DECL_FLOAT
)
switch
(
next
->
value_decl
)
{
case
K_DECL_FLOAT
:
next
->
result_float
=
next
->
value_float
;
next
->
result_float
=
next
->
value_float
;
else
if
(
next
->
value_decl
==
K_DECL_INT
)
break
;
case
K_DECL_INT
:
next
->
result_int
=
next
->
value_int
;
next
->
result_int
=
next
->
value_int
;
else
break
;
default:
strcpy
(
next
->
result_string
,
next
->
value_string
);
strcpy
(
next
->
result_string
,
next
->
value_string
);
}
next
->
result_decl
=
next
->
value_decl
;
next
->
result_decl
=
next
->
value_decl
;
}
}
}
}
else
if
(
op
->
type
==
K_OPERAND_NAME
&&
!
op
->
result_done
)
else
if
(
op
->
type
==
K_OPERAND_NAME
&&
!
op
->
result_done
)
{
{
sts
=
ccm_getvar
(
funcctx
,
op
->
name
,
&
op
->
value_decl
,
&
op
->
value_float
,
sts
=
ccm_getvar
(
funcctx
,
op
->
name
,
&
op
->
value_decl
,
&
op
->
value_float
,
&
op
->
value_int
,
op
->
value_string
);
&
op
->
value_int
,
op
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
else
if
(
op
->
type
==
K_OPERAND_FUNCTION
)
else
if
(
op
->
type
==
K_OPERAND_FUNCTION
)
{
{
/* Create an argument list */
/* Create an argument list */
arg_list
=
0
;
arg_list
=
0
;
arg_count
=
0
;
arg_count
=
0
;
for
(
op_arg
=
op
->
next
;
op_arg
;
op_arg
=
op_arg
->
next
)
for
(
op_arg
=
op
->
next
;
op_arg
;
op_arg
=
op_arg
->
next
)
{
{
if
(
op_arg
->
type
==
K_OPERAND_NO
&&
if
(
op_arg
->
type
==
K_OPERAND_NO
&&
op_arg
->
parlevel
==
op
->
parlevel
-
1
)
op_arg
->
parlevel
==
op
->
parlevel
-
1
)
break
;
break
;
if
(
op_arg
->
type
==
K_OPERAND_NAME
)
{
if
(
op_arg
->
type
==
K_OPERAND_NAME
)
{
sts
=
ccm_getvar
(
funcctx
,
op_arg
->
name
,
&
op_arg
->
value_decl
,
sts
=
ccm_getvar
(
funcctx
,
op_arg
->
name
,
&
op_arg
->
value_decl
,
&
op_arg
->
value_float
,
&
op_arg
->
value_int
,
op_arg
->
value_string
);
&
op_arg
->
value_float
,
&
op_arg
->
value_int
,
op_arg
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
arg_p
=
calloc
(
1
,
sizeof
(
ccm_sArg
));
arg_p
=
calloc
(
1
,
sizeof
(
ccm_sArg
));
if
(
op_arg
->
value_decl
==
K_DECL_INT
)
switch
(
op_arg
->
value_decl
)
{
case
K_DECL_INT
:
arg_p
->
value_int
=
op_arg
->
value_int
;
arg_p
->
value_int
=
op_arg
->
value_int
;
else
if
(
op_arg
->
value_decl
==
K_DECL_FLOAT
)
break
;
case
K_DECL_FLOAT
:
arg_p
->
value_float
=
op_arg
->
value_float
;
arg_p
->
value_float
=
op_arg
->
value_float
;
else
if
(
op_arg
->
value_decl
==
K_DECL_STRING
)
break
;
case
K_DECL_STRING
:
strcpy
(
arg_p
->
value_string
,
op_arg
->
value_string
);
strcpy
(
arg_p
->
value_string
,
op_arg
->
value_string
);
break
;
default:
;
}
arg_p
->
value_decl
=
op_arg
->
value_decl
;
arg_p
->
value_decl
=
op_arg
->
value_decl
;
arg_p
->
value_type
=
op_arg
->
type
;
arg_p
->
value_type
=
op_arg
->
type
;
strcpy
(
arg_p
->
value_name
,
op_arg
->
name
);
strcpy
(
arg_p
->
value_name
,
op_arg
->
name
);
if
(
arg_list
==
0
)
if
(
arg_list
==
0
)
arg_list
=
arg_p
;
arg_list
=
arg_p
;
else
else
{
{
for
(
a_p
=
arg_list
;
a_p
->
next
;
a_p
=
a_p
->
next
)
;
for
(
a_p
=
arg_list
;
a_p
->
next
;
a_p
=
a_p
->
next
)
;
a_p
->
next
=
arg_p
;
a_p
->
next
=
arg_p
;
}
}
...
@@ -1930,11 +1940,10 @@ int ccm_operate_exec(
...
@@ -1930,11 +1940,10 @@ int ccm_operate_exec(
op
->
result_string
,
0
);
op
->
result_string
,
0
);
/* Set returned argument values and free argumentlist */
/* Set returned argument values and free argumentlist */
for
(
arg_p
=
arg_list
;
arg_p
;
arg_p
=
next_arg
)
for
(
arg_p
=
arg_list
;
arg_p
;
arg_p
=
next_arg
)
{
{
if
(
arg_p
->
value_type
==
K_OPERAND_NAME
&&
if
(
arg_p
->
value_type
==
K_OPERAND_NAME
&&
arg_p
->
value_returned
)
arg_p
->
value_returned
)
{
{
sts
=
ccm_setvar
(
funcctx
,
arg_p
->
value_name
,
arg_p
->
value_decl
,
sts
=
ccm_setvar
(
funcctx
,
arg_p
->
value_name
,
arg_p
->
value_decl
,
arg_p
->
value_float
,
arg_p
->
value_int
,
arg_p
->
value_string
);
arg_p
->
value_float
,
arg_p
->
value_int
,
arg_p
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
...
@@ -1948,22 +1957,22 @@ int ccm_operate_exec(
...
@@ -1948,22 +1957,22 @@ int ccm_operate_exec(
}
}
if
(
next
->
type
==
K_OPERAND_NAME
&&
!
next
->
result_done
&&
if
(
next
->
type
==
K_OPERAND_NAME
&&
!
next
->
result_done
&&
op
->
type
!=
K_OPERAND_DECL
)
op
->
type
!=
K_OPERAND_DECL
)
{
{
sts
=
ccm_getvar
(
funcctx
,
next
->
name
,
&
next
->
value_decl
,
&
next
->
value_float
,
sts
=
ccm_getvar
(
funcctx
,
next
->
name
,
&
next
->
value_decl
,
&
next
->
value_float
,
&
next
->
value_int
,
next
->
value_string
);
&
next
->
value_int
,
next
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
if
(
next
->
result_done
)
if
(
next
->
result_done
)
{
{
/* Use result, not value for next-operand */
/* Use result, not value for next-operand */
next_decl
=
next
->
result_decl
;
next_decl
=
next
->
result_decl
;
next_int
=
next
->
result_int
;
next_int
=
next
->
result_int
;
next_float
=
next
->
result_float
;
next_float
=
next
->
result_float
;
strcpy
(
next_string
,
next
->
result_string
);
strcpy
(
next_string
,
next
->
result_string
);
}
}
else
else
{
{
/* Use value for next-operand */
/* Use value for next-operand */
next_decl
=
next
->
value_decl
;
next_decl
=
next
->
value_decl
;
next_int
=
next
->
value_int
;
next_int
=
next
->
value_int
;
...
@@ -1971,473 +1980,579 @@ int ccm_operate_exec(
...
@@ -1971,473 +1980,579 @@ int ccm_operate_exec(
strcpy
(
next_string
,
next
->
value_string
);
strcpy
(
next_string
,
next
->
value_string
);
}
}
if
(
next
->
type
==
K_OPERAND_NO
&&
!
next
->
result_done
)
if
(
next
->
type
==
K_OPERAND_NO
&&
!
next
->
result_done
)
{
{
next
->
result_float
=
op
->
result_float
;
next
->
result_float
=
op
->
result_float
;
next
->
result_int
=
op
->
result_int
;
next
->
result_int
=
op
->
result_int
;
strcpy
(
next
->
result_string
,
op
->
result_string
);
strcpy
(
next
->
result_string
,
op
->
result_string
);
next
->
result_decl
=
op
->
result_decl
;
next
->
result_decl
=
op
->
result_decl
;
}
}
else
if
(
next_decl
==
K_DECL_UNKNOWN
)
else
if
(
next_decl
==
K_DECL_UNKNOWN
)
{
{
next_decl
=
op
->
value_decl
;
next_decl
=
op
->
value_decl
;
}
}
switch
(
op
->
o_operator
)
switch
(
op
->
o_operator
)
{
{
case
K_ACTION_EQL
:
case
K_ACTION_EQL
:
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next_decl
,
next_float
,
next_int
,
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next_decl
,
next_float
,
next_int
,
next_string
);
next_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
break
;
break
;
case
K_ACTION_RETURN
:
case
K_ACTION_RETURN
:
if
(
!
next
->
result_done
)
if
(
!
next
->
result_done
)
{
{
next
->
result_decl
=
next_decl
;
next
->
result_decl
=
next_decl
;
if
(
next_decl
==
K_DECL_INT
)
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
next_int
;
next
->
result_int
=
next_int
;
else
if
(
next_decl
==
K_DECL_FLOAT
)
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
next_float
;
next
->
result_float
=
next_float
;
else
if
(
next_decl
==
K_DECL_STRING
)
break
;
case
K_DECL_STRING
:
strcpy
(
next
->
result_string
,
next_string
);
strcpy
(
next
->
result_string
,
next_string
);
break
;
break
;
}
}
}
break
;
case
K_ACTION_MUL
:
case
K_ACTION_MUL
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
*
next_int
;
next
->
result_int
=
op
->
result_int
*
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
*
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
*
next_float
;
next
->
result_float
=
op
->
result_int
*
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
*
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
*
next_float
;
next
->
result_float
=
op
->
result_float
*
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_DIV
:
case
K_ACTION_DIV
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
/
next_int
;
next
->
result_int
=
op
->
result_int
/
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
/
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
/
next_float
;
next
->
result_float
=
op
->
result_int
/
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
/
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
/
next_float
;
next
->
result_float
=
op
->
result_float
/
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_ADD
:
case
K_ACTION_ADD
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
+
next_int
;
next
->
result_int
=
op
->
result_int
+
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
+
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
+
next_float
;
next
->
result_float
=
op
->
result_int
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
case
K_DECL_STRING
:
{
next
->
result_float
=
op
->
result_float
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_STRING
)
{
strcpy
(
next
->
result_string
,
op
->
result_string
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_STRING
)
{
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
ccm_cIntFormat
,
op
->
result_int
);
ccm_cIntFormat
,
op
->
result_int
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_INT
)
break
;
{
case
K_DECL_FLOAT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
switch
(
next_decl
)
{
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
case
K_DECL_INT
:
ccm_cIntFormat
,
next_int
);
next
->
result_float
=
op
->
result_float
+
next_int
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_STRING
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_STRING
:
ccm_float_to_string
(
tmp_str
,
op
->
result_float
);
ccm_float_to_string
(
tmp_str
,
op
->
result_float
);
strcpy
(
next
->
result_string
,
tmp_str
);
strcpy
(
next
->
result_string
,
tmp_str
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_STRING
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
ccm_cIntFormat
,
next_int
);
next
->
result_decl
=
K_DECL_STRING
;
break
;
case
K_DECL_FLOAT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
strcpy
(
next
->
result_string
,
op
->
result_string
);
ccm_float_to_string
(
tmp_str
,
next_float
);
ccm_float_to_string
(
tmp_str
,
next_float
);
strncat
(
next
->
result_string
,
tmp_str
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
tmp_str
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
case
K_DECL_STRING
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_EQLADD
:
case
K_ACTION_EQLADD
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
+
next_int
;
next
->
result_int
=
op
->
result_int
+
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
+
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
+
next_float
;
next
->
result_float
=
op
->
result_int
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
case
K_DECL_STRING
:
{
next
->
result_float
=
op
->
result_float
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_STRING
)
{
strcpy
(
next
->
result_string
,
op
->
result_string
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_STRING
)
{
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
ccm_cIntFormat
,
op
->
result_int
);
ccm_cIntFormat
,
op
->
result_int
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_INT
)
break
;
{
case
K_DECL_FLOAT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
switch
(
next_decl
)
{
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
case
K_DECL_INT
:
ccm_cIntFormat
,
next_int
);
next
->
result_float
=
op
->
result_float
+
next_int
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_STRING
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
+
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_STRING
:
ccm_float_to_string
(
tmp_str
,
op
->
result_float
);
ccm_float_to_string
(
tmp_str
,
op
->
result_float
);
strcpy
(
next
->
result_string
,
tmp_str
);
strcpy
(
next
->
result_string
,
tmp_str
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_STRING
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
sprintf
(
next
->
result_string
+
strlen
(
next
->
result_string
),
ccm_cIntFormat
,
next_int
);
next
->
result_decl
=
K_DECL_STRING
;
break
;
case
K_DECL_FLOAT
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
strcpy
(
next
->
result_string
,
op
->
result_string
);
ccm_float_to_string
(
tmp_str
,
next_float
);
ccm_float_to_string
(
tmp_str
,
next_float
);
strncat
(
next
->
result_string
,
tmp_str
,
K_STRING_SIZE
);
strncat
(
next
->
result_string
,
tmp_str
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
case
K_DECL_STRING
:
strcpy
(
next
->
result_string
,
op
->
result_string
);
strncat
(
next
->
result_string
,
next_string
,
K_STRING_SIZE
);
next
->
result_string
[
K_STRING_SIZE
-
1
]
=
0
;
next
->
result_decl
=
K_DECL_STRING
;
break
;
}
break
;
}
}
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next
->
result_decl
,
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next
->
result_decl
,
next
->
result_float
,
next
->
result_int
,
next
->
result_string
);
next
->
result_float
,
next
->
result_int
,
next
->
result_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
break
;
break
;
case
K_ACTION_EQLSUB
:
case
K_ACTION_EQLSUB
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
-
next_int
;
next
->
result_int
=
op
->
result_int
-
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
-
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
-
next_float
;
next
->
result_float
=
op
->
result_int
-
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
-
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
-
next_float
;
next
->
result_float
=
op
->
result_float
-
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
break
;
}
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next
->
result_decl
,
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
next
->
result_decl
,
next
->
result_float
,
next
->
result_int
,
next
->
result_string
);
next
->
result_float
,
next
->
result_int
,
next
->
result_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
break
;
break
;
case
K_ACTION_SUB
:
case
K_ACTION_SUB
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
-
next_int
;
next
->
result_int
=
op
->
result_int
-
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
-
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
-
next_float
;
next
->
result_float
=
op
->
result_int
-
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
-
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
-
next_float
;
next
->
result_float
=
op
->
result_float
-
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_AND
:
case
K_ACTION_AND
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
&&
next_int
;
next
->
result_int
=
op
->
result_int
&&
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
&&
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
&&
next_float
;
next
->
result_float
=
op
->
result_int
&&
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
&&
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
&&
next_float
;
next
->
result_float
=
op
->
result_float
&&
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_OR
:
case
K_ACTION_OR
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
op
->
result_int
||
next_int
;
next
->
result_int
=
op
->
result_int
||
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_float
=
op
->
result_float
||
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_float
=
op
->
result_int
||
next_float
;
next
->
result_float
=
op
->
result_int
||
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_float
=
op
->
result_float
||
next_int
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_float
=
op
->
result_float
||
next_float
;
next
->
result_float
=
op
->
result_float
||
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_EQ
:
case
K_ACTION_EQ
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
==
next_int
);
next
->
result_int
=
(
op
->
result_int
==
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
(
fabs
(
op
->
result_float
-
next_int
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
(
fabs
(
op
->
result_int
-
next_float
)
<
FLT_EPSILON
);
next
->
result_int
=
(
fabs
(
op
->
result_int
-
next_float
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
0
;
next
->
result_decl
=
K_DECL_INT
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
fabs
(
op
->
result_float
-
next_int
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
(
fabs
(
op
->
result_float
-
next_float
)
<
FLT_EPSILON
);
next
->
result_int
=
(
fabs
(
op
->
result_float
-
next_float
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
0
;
next
->
result_decl
=
K_DECL_INT
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_STRING
)
break
;
{
case
K_DECL_STRING
:
switch
(
next_decl
)
{
case
K_DECL_STRING
:
next
->
result_int
=
(
strcmp
(
op
->
result_string
,
next_string
)
==
0
);
next
->
result_int
=
(
strcmp
(
op
->
result_string
,
next_string
)
==
0
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
0
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_NE
:
case
K_ACTION_NE
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
!=
next_int
);
next
->
result_int
=
(
op
->
result_int
!=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
!
(
fabs
(
op
->
result_float
-
next_int
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
!
(
fabs
(
op
->
result_int
-
next_float
)
<
FLT_EPSILON
);
next
->
result_int
=
!
(
fabs
(
op
->
result_int
-
next_float
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
1
;
next
->
result_decl
=
K_DECL_INT
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
!
(
fabs
(
op
->
result_float
-
next_int
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
!
(
fabs
(
op
->
result_float
-
next_float
)
<
FLT_EPSILON
);
next
->
result_int
=
!
(
fabs
(
op
->
result_float
-
next_float
)
<
FLT_EPSILON
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
1
;
next
->
result_decl
=
K_DECL_INT
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_STRING
&&
next_decl
==
K_DECL_STRING
)
break
;
{
case
K_DECL_STRING
:
switch
(
next_decl
)
{
case
K_DECL_STRING
:
next
->
result_int
=
!
(
strcmp
(
op
->
result_string
,
next_string
)
==
0
);
next
->
result_int
=
!
(
strcmp
(
op
->
result_string
,
next_string
)
==
0
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
default:
next
->
result_int
=
1
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_LT
:
case
K_ACTION_LT
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
<
next_int
);
next
->
result_int
=
(
op
->
result_int
<
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
(
op
->
result_float
<
next_int
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
(
op
->
result_int
<
next_float
);
next
->
result_int
=
(
op
->
result_int
<
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_float
<
next_int
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
(
op
->
result_float
<
next_float
);
next
->
result_int
=
(
op
->
result_float
<
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_GT
:
case
K_ACTION_GT
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
>
next_int
);
next
->
result_int
=
(
op
->
result_int
>
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
(
op
->
result_float
>
next_int
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
(
op
->
result_int
>
next_float
);
next
->
result_int
=
(
op
->
result_int
>
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_float
>
next_int
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
(
op
->
result_float
>
next_float
);
next
->
result_int
=
(
op
->
result_float
>
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_LE
:
case
K_ACTION_LE
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
<=
next_int
);
next
->
result_int
=
(
op
->
result_int
<=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
(
op
->
result_float
<=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
(
op
->
result_int
<=
next_float
);
next
->
result_int
=
(
op
->
result_int
<=
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_float
<=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
(
op
->
result_float
<=
next_float
);
next
->
result_int
=
(
op
->
result_float
<=
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_GE
:
case
K_ACTION_GE
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
switch
(
op
->
result_decl
)
{
{
case
K_DECL_INT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_int
>=
next_int
);
next
->
result_int
=
(
op
->
result_int
>=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_INT
)
case
K_DECL_FLOAT
:
{
next
->
result_int
=
(
op
->
result_float
>=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
}
else
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_FLOAT
)
{
next
->
result_int
=
(
op
->
result_int
>=
next_float
);
next
->
result_int
=
(
op
->
result_int
>=
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
}
else
if
(
op
->
result_decl
==
K_DECL_FLOAT
&&
next_decl
==
K_DECL_FLOAT
)
break
;
{
case
K_DECL_FLOAT
:
switch
(
next_decl
)
{
case
K_DECL_INT
:
next
->
result_int
=
(
op
->
result_float
>=
next_int
);
next
->
result_decl
=
K_DECL_INT
;
break
;
case
K_DECL_FLOAT
:
next
->
result_int
=
(
op
->
result_float
>=
next_float
);
next
->
result_int
=
(
op
->
result_float
>=
next_float
);
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
break
;
}
break
;
}
}
break
;
break
;
case
K_ACTION_INV
:
case
K_ACTION_INV
:
if
(
next_decl
==
K_DECL_INT
)
switch
(
next_decl
)
{
{
case
K_DECL_INT
:
next
->
result_int
=
!
next_int
;
next
->
result_int
=
!
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
break
;
else
default:
{
next
->
result_float
=
next_float
;
next
->
result_float
=
next_float
;
next
->
result_decl
=
K_DECL_FLOAT
;
next
->
result_decl
=
K_DECL_FLOAT
;
break
;
}
}
break
;
break
;
case
K_ACTION_BITAND
:
case
K_ACTION_BITAND
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
{
{
next
->
result_int
=
op
->
result_int
&
next_int
;
next
->
result_int
=
op
->
result_int
&
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
}
break
;
break
;
case
K_ACTION_BITOR
:
case
K_ACTION_BITOR
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
{
{
next
->
result_int
=
op
->
result_int
|
next_int
;
next
->
result_int
=
op
->
result_int
|
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
}
break
;
break
;
case
K_ACTION_LSHIFT
:
case
K_ACTION_LSHIFT
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
{
{
next
->
result_int
=
op
->
result_int
<<
next_int
;
next
->
result_int
=
op
->
result_int
<<
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
}
break
;
break
;
case
K_ACTION_RSHIFT
:
case
K_ACTION_RSHIFT
:
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
if
(
op
->
result_decl
==
K_DECL_INT
&&
next_decl
==
K_DECL_INT
)
{
{
next
->
result_int
=
op
->
result_int
>>
next_int
;
next
->
result_int
=
op
->
result_int
>>
next_int
;
next
->
result_decl
=
K_DECL_INT
;
next
->
result_decl
=
K_DECL_INT
;
}
}
...
@@ -2510,13 +2625,11 @@ int ccm_operate_exec(
...
@@ -2510,13 +2625,11 @@ int ccm_operate_exec(
}
}
op
->
done
=
1
;
op
->
done
=
1
;
if
(
op
->
local_type
==
K_LOCTYPE_AFTER
)
if
(
op
->
local_type
==
K_LOCTYPE_AFTER
)
{
{
switch
(
op
->
local_operator
)
switch
(
op
->
local_operator
)
{
{
case
K_ACTION_INCR
:
case
K_ACTION_INCR
:
if
(
op
->
value_decl
==
K_DECL_INT
||
op
->
value_decl
==
K_DECL_FLOAT
)
if
(
op
->
value_decl
==
K_DECL_INT
||
op
->
value_decl
==
K_DECL_FLOAT
)
{
{
op
->
value_int
++
;
op
->
value_int
++
;
op
->
value_float
++
;
op
->
value_float
++
;
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
op
->
value_decl
,
op
->
value_float
,
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
op
->
value_decl
,
op
->
value_float
,
...
@@ -2525,8 +2638,7 @@ int ccm_operate_exec(
...
@@ -2525,8 +2638,7 @@ int ccm_operate_exec(
}
}
break
;
break
;
case
K_ACTION_DECR
:
case
K_ACTION_DECR
:
if
(
op
->
value_decl
==
K_DECL_INT
||
op
->
value_decl
==
K_DECL_FLOAT
)
if
(
op
->
value_decl
==
K_DECL_INT
||
op
->
value_decl
==
K_DECL_FLOAT
)
{
{
op
->
value_int
--
;
op
->
value_int
--
;
op
->
value_float
--
;
op
->
value_float
--
;
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
op
->
value_decl
,
op
->
value_float
,
sts
=
ccm_setvar
(
funcctx
,
op
->
name
,
op
->
value_decl
,
op
->
value_float
,
...
@@ -2560,67 +2672,72 @@ int ccm_execute_list(
...
@@ -2560,67 +2672,72 @@ int ccm_execute_list(
op
->
orig_type
=
op
->
type
;
op
->
orig_type
=
op
->
type
;
exit_func_found
=
0
;
exit_func_found
=
0
;
for
(
op
=
funcctx
->
list
;
op
;
op
=
op
->
next
)
for
(
op
=
funcctx
->
list
;
op
;
op
=
op
->
next
)
{
{
if
(
!
op
->
prev
)
if
(
!
op
->
prev
)
{
{
/* First in list */
/* First in list */
if
(
op
->
type
==
K_OPERAND_NAME
)
if
(
op
->
type
==
K_OPERAND_NAME
)
{
{
sts
=
ccm_getvar
(
funcctx
,
op
->
name
,
&
op
->
value_decl
,
sts
=
ccm_getvar
(
funcctx
,
op
->
name
,
&
op
->
value_decl
,
&
op
->
value_float
,
&
op
->
value_int
,
op
->
value_string
);
&
op
->
value_float
,
&
op
->
value_int
,
op
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
if
(
op
->
value_decl
==
K_DECL_FLOAT
)
switch
(
op
->
value_decl
)
{
case
K_DECL_FLOAT
:
op
->
result_float
=
op
->
value_float
;
op
->
result_float
=
op
->
value_float
;
else
if
(
op
->
value_decl
==
K_DECL_INT
)
break
;
case
K_DECL_INT
:
op
->
result_int
=
op
->
value_int
;
op
->
result_int
=
op
->
value_int
;
else
break
;
default:
strcpy
(
op
->
result_string
,
op
->
value_string
);
strcpy
(
op
->
result_string
,
op
->
value_string
);
}
op
->
result_decl
=
op
->
value_decl
;
op
->
result_decl
=
op
->
value_decl
;
op
->
result_done
=
1
;
op
->
result_done
=
1
;
if
(
!
op
->
next
)
{
if
(
!
op
->
next
)
{
sts
=
ccm_operate_exec
(
funcctx
,
op
,
NULL
);
sts
=
ccm_operate_exec
(
funcctx
,
op
,
NULL
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
}
}
}
}
if
(
!
op
->
next
)
if
(
!
op
->
next
)
{
{
/* Last in list */
/* Last in list */
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
{
{
if
(
!
bp
->
done
)
{
if
(
!
bp
->
done
)
{
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
}
}
}
}
*
result_decl
=
op
->
result_decl
;
*
result_decl
=
op
->
result_decl
;
if
(
op
->
result_decl
==
K_DECL_FLOAT
)
switch
(
op
->
result_decl
)
{
case
K_DECL_FLOAT
:
*
result_float
=
op
->
result_float
;
*
result_float
=
op
->
result_float
;
else
if
(
op
->
result_decl
==
K_DECL_INT
)
break
;
case
K_DECL_INT
:
*
result_int
=
op
->
result_int
;
*
result_int
=
op
->
result_int
;
else
if
(
op
->
result_decl
==
K_DECL_STRING
)
break
;
case
K_DECL_STRING
:
strcpy
(
result_string
,
op
->
result_string
);
strcpy
(
result_string
,
op
->
result_string
);
break
;
default:
;
}
}
else
}
{
else
{
if
(
op
->
next
->
parlevel
>
op
->
parlevel
)
{
if
(
op
->
next
->
parlevel
>
op
->
parlevel
)
{
/* Left parenthesis */
/* Left parenthesis */
if
(
op
->
next
->
prio
<
op
->
prio
)
if
(
op
->
next
->
prio
<
op
->
prio
)
{
{
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
{
{
if
(
bp
->
parlevel
<
op
->
parlevel
)
if
(
bp
->
parlevel
<
op
->
parlevel
)
break
;
break
;
if
(
bp
->
parlevel
>
op
->
parlevel
)
if
(
bp
->
parlevel
>
op
->
parlevel
)
continue
;
continue
;
if
(
bp
->
prio
<=
op
->
prio
&&
!
bp
->
done
)
{
if
(
bp
->
prio
<=
op
->
prio
&&
!
bp
->
done
)
{
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
...
@@ -2629,18 +2746,16 @@ int ccm_execute_list(
...
@@ -2629,18 +2746,16 @@ int ccm_execute_list(
}
}
continue
;
continue
;
}
}
else
if
(
op
->
next
->
parlevel
<
op
->
parlevel
)
else
if
(
op
->
next
->
parlevel
<
op
->
parlevel
)
{
{
/* Right parentheseis, sum sinc last right parenthes */
/* Right parentheseis, sum sinc last right parenthes */
for
(
bp
=
op
;
bp
;
bp
=
bp
->
prev
)
for
(
bp
=
op
;
bp
;
bp
=
bp
->
prev
)
{
{
if
(
bp
->
parlevel
<
op
->
parlevel
)
if
(
bp
->
parlevel
<
op
->
parlevel
)
break
;
break
;
if
(
bp
->
parlevel
>
op
->
parlevel
)
if
(
bp
->
parlevel
>
op
->
parlevel
)
continue
;
continue
;
if
(
!
bp
->
done
)
if
(
!
bp
->
done
)
{
{
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
->
next
);
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
->
next
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
...
@@ -2648,42 +2763,45 @@ int ccm_execute_list(
...
@@ -2648,42 +2763,45 @@ int ccm_execute_list(
}
}
}
}
else
else
{
{
if
(
op
->
next
->
prio
<
op
->
prio
)
if
(
op
->
next
->
prio
<
op
->
prio
)
{
{
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
for
(
bp
=
op
->
prev
;
bp
;
bp
=
bp
->
prev
)
{
{
if
(
bp
->
parlevel
<
op
->
parlevel
)
if
(
bp
->
parlevel
<
op
->
parlevel
)
break
;
break
;
if
(
bp
->
parlevel
>
op
->
parlevel
)
if
(
bp
->
parlevel
>
op
->
parlevel
)
continue
;
continue
;
if
(
bp
->
prio
<=
op
->
prio
&&
!
bp
->
done
)
if
(
bp
->
prio
<=
op
->
prio
&&
!
bp
->
done
)
{
{
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
sts
=
ccm_operate_exec
(
funcctx
,
bp
,
op
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
}
}
}
}
if
(
op
->
next
->
type
==
K_OPERAND_NAME
)
if
(
op
->
next
->
type
==
K_OPERAND_NAME
)
{
{
sts
=
ccm_getvar
(
funcctx
,
op
->
next
->
name
,
&
op
->
next
->
value_decl
,
sts
=
ccm_getvar
(
funcctx
,
op
->
next
->
name
,
&
op
->
next
->
value_decl
,
&
op
->
next
->
value_float
,
&
op
->
next
->
value_int
,
&
op
->
next
->
value_float
,
&
op
->
next
->
value_int
,
op
->
next
->
value_string
);
op
->
next
->
value_string
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
}
}
if
(
op
->
next
->
value_decl
==
K_DECL_FLOAT
)
switch
(
op
->
next
->
value_decl
)
{
case
K_DECL_FLOAT
:
op
->
next
->
result_float
=
op
->
next
->
value_float
;
op
->
next
->
result_float
=
op
->
next
->
value_float
;
else
if
(
op
->
next
->
value_decl
==
K_DECL_INT
)
break
;
case
K_DECL_INT
:
op
->
next
->
result_int
=
op
->
next
->
value_int
;
op
->
next
->
result_int
=
op
->
next
->
value_int
;
else
if
(
op
->
next
->
value_decl
==
K_DECL_STRING
)
break
;
case
K_DECL_STRING
:
strcpy
(
op
->
next
->
result_string
,
op
->
next
->
value_string
);
strcpy
(
op
->
next
->
result_string
,
op
->
next
->
value_string
);
break
;
default:
;
}
op
->
next
->
result_decl
=
op
->
next
->
value_decl
;
op
->
next
->
result_decl
=
op
->
next
->
value_decl
;
op
->
next
->
result_done
=
1
;
op
->
next
->
result_done
=
1
;
continue
;
continue
;
}
}
else
else
{
{
sts
=
ccm_operate_exec
(
funcctx
,
op
,
op
->
next
);
sts
=
ccm_operate_exec
(
funcctx
,
op
,
op
->
next
);
if
(
EVEN
(
sts
))
return
sts
;
if
(
EVEN
(
sts
))
return
sts
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
if
(
sts
==
CCM__EXITFUNC
)
exit_func_found
=
1
;
...
@@ -2723,8 +2841,8 @@ int ccm_line_exec(
...
@@ -2723,8 +2841,8 @@ int ccm_line_exec(
funcctx
->
list
=
list
;
funcctx
->
list
=
list
;
for
(
op
=
list
;
op
;
op
=
op
->
next
)
for
(
op
=
list
;
op
;
op
=
op
->
next
)
{
{
if
(
ccm_testmode
)
if
(
ccm_testmode
)
printf
(
"operator %d prio %d parlevel %d Name %s
\n
"
,
printf
(
"operator %d prio %d parlevel %d Name %s
\n
"
,
op
->
o_operator
,
op
->
prio
,
op
->
parlevel
,
op
->
o_operator
,
op
->
prio
,
op
->
parlevel
,
...
@@ -2742,7 +2860,8 @@ int ccm_line_exec(
...
@@ -2742,7 +2860,8 @@ int ccm_line_exec(
int
ccm_singleline_init
(
int
ccm_singleline_init
(
ccm_tSingleLineCtx
*
ctx
,
ccm_tSingleLineCtx
*
ctx
,
char
*
line
,
char
*
line
,
int
(
*
errormessage_func
)
(
char
*
,
int
,
void
*
)
int
(
*
errormessage_func
)
(
char
*
,
int
,
void
*
),
void
*
client_data
)
)
{
{
int
sts
;
int
sts
;
...
@@ -2757,7 +2876,7 @@ int ccm_singleline_init(
...
@@ -2757,7 +2876,7 @@ int ccm_singleline_init(
filectx
->
verify
=
1
;
filectx
->
verify
=
1
;
filectx
->
main_arg_list
=
0
;
filectx
->
main_arg_list
=
0
;
filectx
->
main_arg_count
=
0
;
filectx
->
main_arg_count
=
0
;
filectx
->
client_data
=
0
;
filectx
->
client_data
=
client_data
;
(
*
ctx
)
->
funcctx
->
filectx
=
filectx
;
(
*
ctx
)
->
funcctx
->
filectx
=
filectx
;
...
@@ -2785,6 +2904,52 @@ int ccm_singleline_exec(
...
@@ -2785,6 +2904,52 @@ int ccm_singleline_exec(
return
sts
;
return
sts
;
}
}
int
ccm_singleline_exec_float
(
ccm_tSingleLineCtx
ctx
,
ccm_tFloat
*
result
)
{
int
sts
;
sts
=
ccm_singleline_exec
(
ctx
);
if
(
ODD
(
sts
))
{
switch
(
ctx
->
result_decl
)
{
case
CCM_DECL_INT
:
*
result
=
ctx
->
result_int
;
break
;
case
CCM_DECL_FLOAT
:
*
result
=
ctx
->
result_float
;
break
;
default:
return
CCM__VARTYPE
;
}
}
return
sts
;
}
int
ccm_singleline_exec_int
(
ccm_tSingleLineCtx
ctx
,
ccm_tInt
*
result
)
{
int
sts
;
sts
=
ccm_singleline_exec
(
ctx
);
if
(
ODD
(
sts
))
{
switch
(
ctx
->
result_decl
)
{
case
CCM_DECL_INT
:
*
result
=
ctx
->
result_int
;
break
;
case
CCM_DECL_FLOAT
:
*
result
=
ctx
->
result_float
;
break
;
default:
return
CCM__VARTYPE
;
}
}
return
sts
;
}
void
ccm_singleline_free
(
void
ccm_singleline_free
(
ccm_tSingleLineCtx
ctx
ccm_tSingleLineCtx
ctx
)
)
...
...
src/lib/co/src/co_ccm.h
View file @
964a98e5
...
@@ -251,13 +251,24 @@ int ccm_ref_external_var(
...
@@ -251,13 +251,24 @@ int ccm_ref_external_var(
int
ccm_singleline_init
(
int
ccm_singleline_init
(
ccm_tSingleLineCtx
*
ctx
,
ccm_tSingleLineCtx
*
ctx
,
char
*
line
,
char
*
line
,
int
(
*
errormessage_func
)
(
char
*
,
int
,
void
*
)
int
(
*
errormessage_func
)
(
char
*
,
int
,
void
*
),
void
*
client_data
);
);
int
ccm_singleline_exec
(
int
ccm_singleline_exec
(
ccm_tSingleLineCtx
ctx
ccm_tSingleLineCtx
ctx
);
);
int
ccm_singleline_exec_int
(
ccm_tSingleLineCtx
ctx
,
ccm_tInt
*
result
);
int
ccm_singleline_exec_float
(
ccm_tSingleLineCtx
ctx
,
ccm_tFloat
*
result
);
void
ccm_singleline_free
(
void
ccm_singleline_free
(
ccm_tSingleLineCtx
ctx
ccm_tSingleLineCtx
ctx
);
);
...
...
src/lib/co/src/co_lng.cpp
View file @
964a98e5
...
@@ -509,6 +509,7 @@ void Lng::set( char *language)
...
@@ -509,6 +509,7 @@ void Lng::set( char *language)
if
(
EVEN
(
sts
))
return
;
if
(
EVEN
(
sts
))
return
;
}
}
setlocale
(
LC_ALL
,
lang_to_locale
(
l
));
setlocale
(
LC_ALL
,
lang_to_locale
(
l
));
setlocale
(
LC_NUMERIC
,
"POSIX"
);
}
}
pwr_tStatus
Lng
::
set
(
lng_eLanguage
language
)
pwr_tStatus
Lng
::
set
(
lng_eLanguage
language
)
...
@@ -528,6 +529,7 @@ pwr_tStatus Lng::set( lng_eLanguage language)
...
@@ -528,6 +529,7 @@ pwr_tStatus Lng::set( lng_eLanguage language)
}
}
setlocale
(
LC_ALL
,
lang_to_locale
(
lang
));
setlocale
(
LC_ALL
,
lang_to_locale
(
lang
));
setlocale
(
LC_NUMERIC
,
"POSIX"
);
return
1
;
return
1
;
}
}
...
...
xtt/exe/rt_xtt/gtk/rt_xtt_gtk.cpp
View file @
964a98e5
...
@@ -557,8 +557,6 @@ int main( int argc, char *argv[])
...
@@ -557,8 +557,6 @@ int main( int argc, char *argv[])
{
{
int
sts
;
int
sts
;
setlocale
(
LC_TIME
,
"en_US"
);
new
XttGtk
(
argc
,
argv
,
&
sts
);
new
XttGtk
(
argc
,
argv
,
&
sts
);
exit
(
sts
);
exit
(
sts
);
}
}
...
@@ -596,6 +594,9 @@ XttGtk::XttGtk( int argc, char *argv[], int *return_sts) :
...
@@ -596,6 +594,9 @@ XttGtk::XttGtk( int argc, char *argv[], int *return_sts) :
gtk_init
(
&
argc
,
&
argv
);
gtk_init
(
&
argc
,
&
argv
);
setlocale
(
LC_TIME
,
"en_US"
);
setlocale
(
LC_NUMERIC
,
"POSIX"
);
syi_NodeName
(
&
sts
,
nodename
,
sizeof
(
nodename
));
syi_NodeName
(
&
sts
,
nodename
,
sizeof
(
nodename
));
if
(
ODD
(
sts
))
if
(
ODD
(
sts
))
strcat
(
title
,
nodename
);
strcat
(
title
,
nodename
);
...
...
xtt/lib/ge/src/ge_curve.cpp
View file @
964a98e5
...
@@ -1138,8 +1138,8 @@ int GeCurve::read_file( char *filename)
...
@@ -1138,8 +1138,8 @@ int GeCurve::read_file( char *filename)
cd
->
x_reverse
=
0
;
cd
->
x_reverse
=
0
;
cd
->
cols
=
nr
-
1
;
cd
->
cols
=
nr
-
1
;
cd
->
rows
[
0
]
=
rows
;
for
(
i
=
0
;
i
<
nr
;
i
++
)
{
for
(
i
=
0
;
i
<
nr
;
i
++
)
{
cd
->
rows
[
i
]
=
rows
;
if
(
i
==
0
)
{
if
(
i
==
0
)
{
strcpy
(
cd
->
x_name
,
item_str
[
i
]);
strcpy
(
cd
->
x_name
,
item_str
[
i
]);
cd
->
x_data
[
i
]
=
(
double
*
)
malloc
(
rows
*
sizeof
(
double
));
cd
->
x_data
[
i
]
=
(
double
*
)
malloc
(
rows
*
sizeof
(
double
));
...
...
xtt/lib/xtt/gtk/xtt_sevhist_gtk.cpp
View file @
964a98e5
...
@@ -66,7 +66,7 @@ XttSevHistGtk::XttSevHistGtk( void *parent_ctx,
...
@@ -66,7 +66,7 @@ XttSevHistGtk::XttSevHistGtk( void *parent_ctx,
*
sts
=
XNAV__SUCCESS
;
*
sts
=
XNAV__SUCCESS
;
curve
=
new
GeCurveGtk
(
this
,
parent_widget
,
title
,
NULL
,
gcd
,
0
);
curve
=
new
GeCurveGtk
(
this
,
parent_widget
,
title
,
NULL
,
gcd
,
1
);
curve
->
close_cb
=
sevhist_close_cb
;
curve
->
close_cb
=
sevhist_close_cb
;
curve
->
help_cb
=
sevhist_help_cb
;
curve
->
help_cb
=
sevhist_help_cb
;
curve
->
higher_res_cb
=
sevhist_higher_res_cb
;
curve
->
higher_res_cb
=
sevhist_higher_res_cb
;
...
...
xtt/lib/xtt/src/xtt_logging.cpp
View file @
964a98e5
...
@@ -53,6 +53,7 @@
...
@@ -53,6 +53,7 @@
#include "pwr_baseclasses.h"
#include "pwr_baseclasses.h"
#include "co_cdh.h"
#include "co_cdh.h"
#include "co_time.h"
#include "co_time.h"
#include "co_ccm_msg.h"
#include "rt_gdh.h"
#include "rt_gdh.h"
#include "rt_gdh_msg.h"
#include "rt_gdh_msg.h"
#include "co_dcli.h"
#include "co_dcli.h"
...
@@ -73,15 +74,63 @@
...
@@ -73,15 +74,63 @@
#endif
#endif
static
void
*
xtt_logproc
(
void
*
arg
);
static
void
*
xtt_logproc
(
void
*
arg
);
static
int
log_ccm_registred
=
0
;
static
int
log_errormessage_func
(
char
*
msg
,
int
severity
,
void
*
data
)
{
((
XttLogging
*
)
data
)
->
message
(
severity
,
msg
);
printf
(
"Condition error: %s
\n
"
,
msg
);
return
1
;
}
static
int
logccm_geta_func
(
void
*
filectx
,
ccm_sArg
*
arg_list
,
int
arg_count
,
int
*
return_decl
,
ccm_tFloat
*
return_float
,
ccm_tInt
*
return_int
,
char
*
return_string
)
{
int
sts
;
if
(
arg_count
!=
1
||
arg_list
->
value_decl
!=
CCM_DECL_STRING
)
return
CCM__ARGMISM
;
sts
=
gdh_GetObjectInfo
(
arg_list
->
value_string
,
return_float
,
sizeof
(
*
return_float
));
if
(
EVEN
(
sts
))
return
sts
;
*
return_decl
=
CCM_DECL_FLOAT
;
return
1
;
}
static
int
logccm_getd_func
(
void
*
filectx
,
ccm_sArg
*
arg_list
,
int
arg_count
,
int
*
return_decl
,
ccm_tFloat
*
return_float
,
ccm_tInt
*
return_int
,
char
*
return_string
)
{
int
sts
;
if
(
arg_count
!=
1
||
arg_list
->
value_decl
!=
CCM_DECL_STRING
)
return
CCM__ARGMISM
;
sts
=
gdh_GetObjectInfo
(
arg_list
->
value_string
,
return_int
,
sizeof
(
*
return_int
));
if
(
EVEN
(
sts
))
return
sts
;
*
return_decl
=
CCM_DECL_INT
;
return
1
;
}
XttLogging
::
XttLogging
()
:
XttLogging
::
XttLogging
()
:
xnav
(
0
),
index
(
0
),
active
(
0
),
intern
(
0
),
stop_logg
(
0
),
xnav
(
0
),
index
(
0
),
active
(
0
),
intern
(
0
),
stop_logg
(
0
),
logg_type
(
xtt_LoggType_Cont
),
logg_priority
(
0
),
condition_ptr
(
0
),
logg_type
(
xtt_LoggType_Cont
),
logg_priority
(
0
),
condition_ptr
(
0
),
logg_time
(
200
),
logg_file
(
0
),
line_size
(
10000
),
parameter_count
(
0
),
logg_time
(
200
),
logg_file
(
0
),
line_size
(
10000
),
parameter_count
(
0
),
print_shortname
(
0
),
buffer_size
(
100
),
wanted_buffer_size
(
100
),
print_shortname
(
0
),
buffer_size
(
100
),
wanted_buffer_size
(
100
),
buffer_count
(
0
),
buffer_ptr
(
0
)
buffer_count
(
0
),
buffer_ptr
(
0
)
,
cond_ccm_ctx
(
0
)
{
{
for
(
int
i
=
0
;
i
<
RTT_LOGG_MAXPAR
;
i
++
)
{
for
(
int
i
=
0
;
i
<
RTT_LOGG_MAXPAR
;
i
++
)
{
parameterstr
[
i
][
0
]
=
0
;
parameterstr
[
i
][
0
]
=
0
;
...
@@ -215,17 +264,19 @@ int XttLogging::logging_set(
...
@@ -215,17 +264,19 @@ int XttLogging::logging_set(
parameter_size
[
par_index
]
=
asize
/
aelem
;
parameter_size
[
par_index
]
=
asize
/
aelem
;
}
}
if
(
condition
!=
NULL
)
if
(
condition
!=
NULL
)
{
{
if
(
cdh_NoCaseStrncmp
(
condition
,
"EXPR("
,
5
)
==
0
)
/* Check that parameter exists */
strcpy
(
conditionstr
,
condition
);
else
{
/* Attribute, Check that parameter exists */
sts
=
gdh_GetObjectInfo
(
condition
,
&
buffer
,
sizeof
(
buffer
));
sts
=
gdh_GetObjectInfo
(
condition
,
&
buffer
,
sizeof
(
buffer
));
if
(
EVEN
(
sts
))
if
(
EVEN
(
sts
))
{
{
message
(
'E'
,
"Condition doesn't exist"
);
message
(
'E'
,
"Condition doesn't exist"
);
return
XNAV__HOLDCOMMAND
;
return
XNAV__HOLDCOMMAND
;
}
}
strcpy
(
conditionstr
,
condition
);
strcpy
(
conditionstr
,
condition
);
}
}
}
if
(
a_logg_time
!=
0
)
if
(
a_logg_time
!=
0
)
logg_time
=
a_logg_time
;
logg_time
=
a_logg_time
;
...
@@ -499,10 +550,24 @@ int XttLogging::store(
...
@@ -499,10 +550,24 @@ int XttLogging::store(
fprintf
(
outfile
,
"logging set/entry=current/parameter=
\"
%s
\"\n
"
,
fprintf
(
outfile
,
"logging set/entry=current/parameter=
\"
%s
\"\n
"
,
parameterstr
[
i
]);
parameterstr
[
i
]);
}
}
if
(
conditionstr
[
0
]
!=
0
)
if
(
conditionstr
[
0
]
!=
0
)
{
fprintf
(
outfile
,
"logging set/entry=current/condition=
\"
%s
\"\n
"
,
pwr_tCmd
cond
;
conditionstr
);
char
*
s
,
*
t
;
// Replace " with \"
for
(
s
=
conditionstr
,
t
=
cond
;
*
s
;
s
++
)
{
if
(
*
s
==
'"'
)
{
*
t
=
'\\'
;
t
++
;
}
*
t
=
*
s
;
t
++
;
}
*
t
=
0
;
fprintf
(
outfile
,
"logging set/entry=current/condition=
\"
%s
\"\n
"
,
cond
);
}
if
(
intern
)
if
(
intern
)
fprintf
(
outfile
,
"logging set/entry=current/stop
\n
"
);
fprintf
(
outfile
,
"logging set/entry=current/stop
\n
"
);
else
else
...
@@ -579,21 +644,50 @@ int XttLogging::start()
...
@@ -579,21 +644,50 @@ int XttLogging::start()
}
}
/* Get the condition */
/* Get the condition */
if
(
conditionstr
[
0
]
!=
0
)
if
(
conditionstr
[
0
]
!=
0
)
{
{
if
(
cdh_NoCaseStrncmp
(
conditionstr
,
"EXPR("
,
5
)
==
0
)
{
sts
=
gdh_RefObjectInfo
(
pwr_tCmd
expr
;
conditionstr
,
strncpy
(
expr
,
&
conditionstr
[
5
],
sizeof
(
expr
));
char
*
s
=
strrchr
(
expr
,
')'
);
if
(
!
s
)
{
message
(
'E'
,
"Condition expression syntax error"
);
return
XNAV__HOLDCOMMAND
;
}
*
s
=
0
;
if
(
!
log_ccm_registred
)
{
sts
=
ccm_register_function
(
"GetA"
,
logccm_geta_func
);
if
(
EVEN
(
sts
))
return
sts
;
sts
=
ccm_register_function
(
"GetD"
,
logccm_getd_func
);
if
(
EVEN
(
sts
))
return
sts
;
sts
=
ccm_register_function
(
"GetI"
,
logccm_getd_func
);
if
(
EVEN
(
sts
))
return
sts
;
log_ccm_registred
=
1
;
}
sts
=
ccm_singleline_init
(
&
cond_ccm_ctx
,
expr
,
log_errormessage_func
,
this
);
if
(
EVEN
(
sts
))
{
message
(
'E'
,
"Condition expression syntax error"
);
return
XNAV__HOLDCOMMAND
;
}
condition_ptr
=
0
;
}
else
{
sts
=
gdh_RefObjectInfo
(
conditionstr
,
(
pwr_tAddress
*
)
&
condition_ptr
,
(
pwr_tAddress
*
)
&
condition_ptr
,
&
(
condition_subid
),
1
);
&
(
condition_subid
),
1
);
if
(
EVEN
(
sts
))
if
(
EVEN
(
sts
))
{
{
condition_ptr
=
0
;
message
(
'E'
,
"Condition parameter not found"
);
message
(
'E'
,
"Condition parameter not found"
);
return
XNAV__HOLDCOMMAND
;
return
XNAV__HOLDCOMMAND
;
}
}
cond_ccm_ctx
=
0
;
}
}
else
}
{
else
{
condition_ptr
=
0
;
condition_ptr
=
0
;
cond_ccm_ctx
=
0
;
}
}
/* Open the file */
/* Open the file */
...
@@ -706,8 +800,14 @@ int XttLogging::entry_stop()
...
@@ -706,8 +800,14 @@ int XttLogging::entry_stop()
sts
=
gdh_UnrefObjectInfo
(
parameter_subid
[
i
]);
sts
=
gdh_UnrefObjectInfo
(
parameter_subid
[
i
]);
}
}
}
}
if
(
condition_ptr
!=
0
)
if
(
condition_ptr
!=
0
)
{
sts
=
gdh_UnrefObjectInfo
(
condition_subid
);
sts
=
gdh_UnrefObjectInfo
(
condition_subid
);
condition_ptr
=
0
;
}
if
(
cond_ccm_ctx
!=
0
)
{
ccm_singleline_free
(
cond_ccm_ctx
);
cond_ccm_ctx
=
0
;
}
return
XNAV__SUCCESS
;
return
XNAV__SUCCESS
;
}
}
...
@@ -783,6 +883,7 @@ static void *xtt_logproc( void *arg)
...
@@ -783,6 +883,7 @@ static void *xtt_logproc( void *arg)
char
timstr
[
64
];
char
timstr
[
64
];
char
parname
[
40
];
char
parname
[
40
];
char
*
s
;
char
*
s
;
ccm_tInt
cond
;
pwr_tTime
nextime
;
pwr_tTime
nextime
;
pwr_tTime
restime
;
pwr_tTime
restime
;
pwr_tDeltaTime
deltatime
;
pwr_tDeltaTime
deltatime
;
...
@@ -908,12 +1009,20 @@ static void *xtt_logproc( void *arg)
...
@@ -908,12 +1009,20 @@ static void *xtt_logproc( void *arg)
time_Aadd
(
&
restime
,
&
nextime
,
&
deltatime
);
time_Aadd
(
&
restime
,
&
nextime
,
&
deltatime
);
nextime
=
restime
;
nextime
=
restime
;
if
(
logg
->
condition_ptr
!=
0
)
if
(
logg
->
condition_ptr
||
logg
->
cond_ccm_ctx
)
{
{
if
(
logg
->
active
&&
!
logg
->
stop_logg
)
if
(
logg
->
active
&&
!
logg
->
stop_logg
)
{
{
if
(
logg
->
condition_ptr
)
if
(
!*
(
logg
->
condition_ptr
))
cond
=
*
logg
->
condition_ptr
;
{
else
{
sts
=
ccm_singleline_exec_int
(
logg
->
cond_ccm_ctx
,
&
cond
);
if
(
EVEN
(
sts
))
{
logg
->
message
(
' '
,
XNav
::
get_message
(
sts
));
cond
=
0
;
}
}
if
(
!
cond
)
{
/* Don't log, wait until next scan */
/* Don't log, wait until next scan */
#ifdef OS_VMS
#ifdef OS_VMS
time_PwrToVms
(
&
nextime
,
&
vmstime
);
time_PwrToVms
(
&
nextime
,
&
vmstime
);
...
...
xtt/lib/xtt/src/xtt_logging.h
View file @
964a98e5
...
@@ -22,6 +22,10 @@
...
@@ -22,6 +22,10 @@
/* xtt_logging.h -- Logging in xtt */
/* xtt_logging.h -- Logging in xtt */
#ifndef co_ccm_h
#include "co_ccm.h"
#endif
#ifndef rt_gdh_h
#ifndef rt_gdh_h
#include "rt_gdh.h"
#include "rt_gdh.h"
#endif
#endif
...
@@ -80,6 +84,7 @@ class XttLogging {
...
@@ -80,6 +84,7 @@ class XttLogging {
int
wanted_buffer_size
;
int
wanted_buffer_size
;
int
buffer_count
;
int
buffer_count
;
char
*
buffer_ptr
;
char
*
buffer_ptr
;
ccm_tSingleLineCtx
cond_ccm_ctx
;
void
init
(
int
logg_index
,
void
*
logg_xnav
);
void
init
(
int
logg_index
,
void
*
logg_xnav
);
int
logging_set
(
int
logging_set
(
...
...
xtt/lib/xtt/src/xtt_xnav.cpp
View file @
964a98e5
...
@@ -2890,15 +2890,15 @@ int XNav::show_logging( int index)
...
@@ -2890,15 +2890,15 @@ int XNav::show_logging( int index)
new
ItemLocal
(
brow
,
Lng
::
translate
(
"ShortName"
),
"logg_ShortName"
,
new
ItemLocal
(
brow
,
Lng
::
translate
(
"ShortName"
),
"logg_ShortName"
,
pwr_eType_Boolean
,
sizeof
(
logg
[
0
].
print_shortname
),
0
,
0
,
0
,
pwr_eType_Boolean
,
sizeof
(
logg
[
0
].
print_shortname
),
0
,
0
,
0
,
(
void
*
)
&
logg
[
index
].
print_shortname
,
NULL
,
flow_eDest_IntoLast
);
(
void
*
)
&
logg
[
index
].
print_shortname
,
NULL
,
flow_eDest_IntoLast
);
new
ItemLocal
(
brow
,
Lng
::
translate
(
"Condition"
),
"logg_CondPar"
,
pwr_eType_String
,
sizeof
(
logg
[
0
].
conditionstr
),
0
,
0
,
0
,
(
void
*
)
logg
[
index
].
conditionstr
,
NULL
,
flow_eDest_IntoLast
);
for
(
int
i
=
0
;
i
<
RTT_LOGG_MAXPAR
;
i
++
)
{
for
(
int
i
=
0
;
i
<
RTT_LOGG_MAXPAR
;
i
++
)
{
sprintf
(
text
,
"%s%d"
,
Lng
::
translate
(
"Parameter"
),
i
);
sprintf
(
text
,
"%s%d"
,
Lng
::
translate
(
"Parameter"
),
i
);
new
ItemLocal
(
brow
,
text
,
text
,
new
ItemLocal
(
brow
,
text
,
text
,
pwr_eType_String
,
sizeof
(
logg
[
0
].
parameterstr
[
0
]),
0
,
0
,
0
,
pwr_eType_String
,
sizeof
(
logg
[
0
].
parameterstr
[
0
]),
0
,
0
,
0
,
(
void
*
)
logg
[
index
].
parameterstr
[
i
],
NULL
,
flow_eDest_IntoLast
);
(
void
*
)
logg
[
index
].
parameterstr
[
i
],
NULL
,
flow_eDest_IntoLast
);
}
}
new
ItemLocal
(
brow
,
Lng
::
translate
(
"ConditionParameter"
),
"logg_CondPar"
,
pwr_eType_String
,
sizeof
(
logg
[
0
].
conditionstr
),
0
,
0
,
0
,
(
void
*
)
logg
[
index
].
conditionstr
,
NULL
,
flow_eDest_IntoLast
);
brow_ResetNodraw
(
brow
->
ctx
);
brow_ResetNodraw
(
brow
->
ctx
);
brow_Redraw
(
brow
->
ctx
,
0
);
brow_Redraw
(
brow
->
ctx
,
0
);
...
...
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