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videolan
vlc-gpu
Commits
dbe20e78
Commit
dbe20e78
authored
Aug 21, 2008
by
Laurent Aimar
Browse files
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Plain Diff
Clean up and more panoramix fixes.
I won't say the code is bad, we are way beyond that.
parent
178c33b3
Changes
1
Show whitespace changes
Inline
Side-by-side
Showing
1 changed file
with
305 additions
and
366 deletions
+305
-366
modules/video_filter/panoramix.c
modules/video_filter/panoramix.c
+305
-366
No files found.
modules/video_filter/panoramix.c
View file @
dbe20e78
...
@@ -422,8 +422,8 @@ case VLC_FOURCC('c','y','u','v'): // packed by 2
...
@@ -422,8 +422,8 @@ case VLC_FOURCC('c','y','u','v'): // packed by 2
msg_Dbg
(
p_vout
,
"opening a %i x %i wall"
,
msg_Dbg
(
p_vout
,
"opening a %i x %i wall"
,
p_vout
->
p_sys
->
i_col
,
p_vout
->
p_sys
->
i_row
);
p_vout
->
p_sys
->
i_col
,
p_vout
->
p_sys
->
i_row
);
p_vout
->
p_sys
->
pp_vout
=
m
alloc
(
p_vout
->
p_sys
->
i_row
*
p_vout
->
p_sys
->
pp_vout
=
c
alloc
(
p_vout
->
p_sys
->
i_row
*
p_vout
->
p_sys
->
i_col
*
p_vout
->
p_sys
->
i_col
,
sizeof
(
struct
vout_list_t
)
);
sizeof
(
struct
vout_list_t
)
);
if
(
p_vout
->
p_sys
->
pp_vout
==
NULL
)
if
(
p_vout
->
p_sys
->
pp_vout
==
NULL
)
{
{
...
@@ -505,14 +505,18 @@ static double Gamma_Correction(int i_plane, float f_component, float f_BlackCrus
...
@@ -505,14 +505,18 @@ static double Gamma_Correction(int i_plane, float f_component, float f_BlackCrus
f_Input
=
(
f_component
*
f_BlackLevel
[
i_plane
])
/
(
f_BlackCrush
[
i_plane
])
+
(
1
.
0
-
f_BlackLevel
[
i_plane
]);
f_Input
=
(
f_component
*
f_BlackLevel
[
i_plane
])
/
(
f_BlackCrush
[
i_plane
])
+
(
1
.
0
-
f_BlackLevel
[
i_plane
]);
if
(
f_component
<=
f_BlackCrush
[
i_plane
])
if
(
f_component
<=
f_BlackCrush
[
i_plane
])
{
return
pow
(
f_Input
,
1
.
0
/
f_Gamma
[
i_plane
]);
return
pow
(
f_Input
,
1
.
0
/
f_Gamma
[
i_plane
]);
}
else
if
(
f_component
>=
f_WhiteCrush
[
i_plane
])
else
if
(
f_component
>=
f_WhiteCrush
[
i_plane
])
{
{
f_Input
=
(
f_component
*
(
1
.
0
-
(
f_WhiteLevel
[
i_plane
]
+
1
.
0
))
+
(
f_WhiteLevel
[
i_plane
]
+
1
.
0
)
*
f_WhiteCrush
[
i_plane
]
-
1
.
0
)
/
(
f_WhiteCrush
[
i_plane
]
-
1
.
0
);
f_Input
=
(
f_component
*
(
1
.
0
-
(
f_WhiteLevel
[
i_plane
]
+
1
.
0
))
+
(
f_WhiteLevel
[
i_plane
]
+
1
.
0
)
*
f_WhiteCrush
[
i_plane
]
-
1
.
0
)
/
(
f_WhiteCrush
[
i_plane
]
-
1
.
0
);
return
pow
(
f_Input
,
1
.
0
/
f_Gamma
[
i_plane
]);
return
pow
(
f_Input
,
1
.
0
/
f_Gamma
[
i_plane
]);
}
}
else
else
{
return
1
.
0
;
return
1
.
0
;
}
}
}
#ifdef PACKED_YUV
#ifdef PACKED_YUV
...
@@ -524,13 +528,12 @@ static uint8_t F(uint8_t i, float gamma)
...
@@ -524,13 +528,12 @@ static uint8_t F(uint8_t i, float gamma)
{
{
double
input
=
(
double
)
i
/
255
.
0
;
double
input
=
(
double
)
i
/
255
.
0
;
// return clip(255 * pow(input, 1.0 / gamma));
// return clip(255 * pow(input, 1.0 / gamma));
if
(
input
<
0
.
5
)
if
(
input
<
0
.
5
)
return
clip_uint8
((
255
*
pow
(
2
*
input
,
gamma
))
/
2
);
return
clip_uint8
((
255
*
pow
(
2
*
input
,
gamma
))
/
2
);
else
else
return
clip_uint8
(
255
*
(
1
-
pow
(
2
*
(
1
-
input
),
gamma
)
/
2
));
return
clip_uint8
(
255
*
(
1
-
pow
(
2
*
(
1
-
input
),
gamma
)
/
2
));
}
}
#endif
#endif
#endif
#endif
...
@@ -582,13 +585,16 @@ static int AdjustHeight( vout_thread_t *p_vout )
...
@@ -582,13 +585,16 @@ static int AdjustHeight( vout_thread_t *p_vout )
while
((
d_halfLength
<=
0
)
||
(
d_halfLength
>
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
)))
while
((
d_halfLength
<=
0
)
||
(
d_halfLength
>
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
)))
{
{
if
(
p_vout
->
p_sys
->
bz_length
>=
50
)
if
(
p_vout
->
p_sys
->
bz_length
>=
50
)
{
d_halfLength
=
i_window_width
*
p_vout
->
render
.
i_height
/
(
2
*
i_window_height
*
p_vout
->
p_sys
->
i_row
)
-
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
);
d_halfLength
=
i_window_width
*
p_vout
->
render
.
i_height
/
(
2
*
i_window_height
*
p_vout
->
p_sys
->
i_row
)
-
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
);
}
else
else
{
{
d_halfLength
=
(
p_vout
->
render
.
i_width
*
p_vout
->
p_sys
->
bz_length
)
/
(
100
.
0
*
p_vout
->
p_sys
->
i_col
);
d_halfLength
=
(
p_vout
->
render
.
i_width
*
p_vout
->
p_sys
->
bz_length
)
/
(
100
.
0
*
p_vout
->
p_sys
->
i_col
);
d_halfLength
=
__MAX
(
i_window_width
*
p_vout
->
render
.
i_height
/
(
2
*
i_window_height
*
p_vout
->
p_sys
->
i_row
)
-
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
),
d_halfLength
);
d_halfLength
=
__MAX
(
i_window_width
*
p_vout
->
render
.
i_height
/
(
2
*
i_window_height
*
p_vout
->
p_sys
->
i_row
)
-
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
),
d_halfLength
);
}
}
if
((
d_halfLength
<=
0
)
||
(
d_halfLength
>
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
)))
p_vout
->
p_sys
->
i_row
--
;
if
((
d_halfLength
<=
0
)
||
(
d_halfLength
>
p_vout
->
render
.
i_width
/
(
2
*
p_vout
->
p_sys
->
i_col
)))
p_vout
->
p_sys
->
i_row
--
;
if
(
p_vout
->
p_sys
->
i_row
<
1
)
if
(
p_vout
->
p_sys
->
i_row
<
1
)
{
{
p_vout
->
p_sys
->
i_row
=
1
;
p_vout
->
p_sys
->
i_row
=
1
;
...
@@ -622,7 +628,7 @@ static int AdjustHeight( vout_thread_t *p_vout )
...
@@ -622,7 +628,7 @@ static int AdjustHeight( vout_thread_t *p_vout )
(
double
)
p_vout
->
render
.
i_aspect
/
VOUT_ASPECT_FACTOR
/
(
double
)
p_vout
->
output
.
i_width
);
(
double
)
p_vout
->
render
.
i_aspect
/
VOUT_ASPECT_FACTOR
/
(
double
)
p_vout
->
output
.
i_width
);
}
}
else
else
d
_halfLength
=
0
;
p_vout
->
p_sys
->
i
_halfLength
=
0
;
return
i_offset
;
return
i_offset
;
}
}
...
@@ -636,7 +642,7 @@ static int AdjustHeight( vout_thread_t *p_vout )
...
@@ -636,7 +642,7 @@ static int AdjustHeight( vout_thread_t *p_vout )
static
int
Init
(
vout_thread_t
*
p_vout
)
static
int
Init
(
vout_thread_t
*
p_vout
)
{
{
int
i_index
,
i_row
,
i_col
,
i_width
,
i_height
;
int
i_index
,
i_row
,
i_col
;
picture_t
*
p_pic
;
picture_t
*
p_pic
;
I_OUTPUTPICTURES
=
0
;
I_OUTPUTPICTURES
=
0
;
...
@@ -749,70 +755,59 @@ static int Init( vout_thread_t *p_vout )
...
@@ -749,70 +755,59 @@ static int Init( vout_thread_t *p_vout )
p_vout
->
p_sys
->
i_offset_x
=
AdjustHeight
(
p_vout
);
p_vout
->
p_sys
->
i_offset_x
=
AdjustHeight
(
p_vout
);
else
else
AdjustHeight
(
p_vout
);
AdjustHeight
(
p_vout
);
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
{
p_vout
->
p_sys
->
i_halfHeight
=
(
p_vout
->
p_sys
->
i_halfLength
*
p_vout
->
p_sys
->
bz_height
)
/
100
;
p_vout
->
p_sys
->
i_halfHeight
-=
(
p_vout
->
p_sys
->
i_halfHeight
%
2
);
}
#endif
#endif
/* Try to open the real video output */
/* Try to open the real video output */
msg_Dbg
(
p_vout
,
"spawning the real video outputs"
);
msg_Dbg
(
p_vout
,
"spawning the real video outputs"
);
p_vout
->
p_sys
->
i_vout
=
0
;
/* FIXME: use bresenham instead of those ugly divisions */
/* FIXME: use bresenham instead of those ugly divisions */
p_vout
->
p_sys
->
i_vout
=
0
;
for
(
i_row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
for
(
i_row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
{
{
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
)
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
,
p_vout
->
p_sys
->
i_vout
++
)
{
{
struct
vout_list_t
*
p_entry
=
&
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
];
video_format_t
fmt
;
video_format_t
fmt
;
int
i_width
,
i_height
;
memset
(
&
fmt
,
0
,
sizeof
(
video_format_t
)
);
/* */
i_width
=
(
p_vout
->
render
.
i_width
/
p_vout
->
p_sys
->
i_col
)
&
~
0x1
;
if
(
i_col
+
1
==
p_vout
->
p_sys
->
i_col
)
i_width
=
p_vout
->
render
.
i_width
-
i_col
*
i_width
;
if
(
i_col
+
1
<
p_vout
->
p_sys
->
i_col
)
{
i_width
=
(
p_vout
->
render
.
i_width
/
p_vout
->
p_sys
->
i_col
)
&
~
0x1
;
}
else
{
i_width
=
p_vout
->
render
.
i_width
-
(
(
p_vout
->
render
.
i_width
/
p_vout
->
p_sys
->
i_col
)
&
~
0x1
)
*
i_col
;
}
#ifdef OVERLAP
#ifdef OVERLAP
i_width
+=
p_vout
->
p_sys
->
i_halfLength
;
i_width
+=
p_vout
->
p_sys
->
i_halfLength
;
if
(
p_vout
->
p_sys
->
i_col
>
2
)
i_width
+=
p_vout
->
p_sys
->
i_halfLength
;
if
(
p_vout
->
p_sys
->
i_col
>
2
)
i_width
-=
i_width
%
2
;
i_width
+=
p_vout
->
p_sys
->
i_halfLength
;
i_width
&=
~
0x1
;
#endif
#endif
if
(
i_row
+
1
<
p_vout
->
p_sys
->
i_row
)
{
i_height
=
(
p_vout
->
render
.
i_height
/
p_vout
->
p_sys
->
i_row
)
&
~
0x3
;
}
else
{
i_height
=
p_vout
->
render
.
i_height
-
(
(
p_vout
->
render
.
i_height
/
p_vout
->
p_sys
->
i_row
)
&
~
0x3
)
*
i_row
;
}
/* */
i_height
=
(
p_vout
->
render
.
i_height
/
p_vout
->
p_sys
->
i_row
)
&
~
0x3
;
if
(
i_row
+
1
==
p_vout
->
p_sys
->
i_row
)
i_height
=
p_vout
->
render
.
i_height
-
i_row
*
i_height
;
#ifdef OVERLAP
#ifdef OVERLAP
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
{
{
p_vout
->
p_sys
->
i_halfHeight
=
(
p_vout
->
p_sys
->
i_halfLength
*
p_vout
->
p_sys
->
bz_height
)
/
100
;
p_vout
->
p_sys
->
i_halfHeight
-=
(
p_vout
->
p_sys
->
i_halfHeight
%
2
);
i_height
+=
p_vout
->
p_sys
->
i_halfHeight
;
i_height
+=
p_vout
->
p_sys
->
i_halfHeight
;
if
(
p_vout
->
p_sys
->
i_row
>
2
)
i_height
+=
p_vout
->
p_sys
->
i_halfHeight
;
if
(
p_vout
->
p_sys
->
i_row
>
2
)
i_height
+=
p_vout
->
p_sys
->
i_halfHeight
;
}
}
i_height
-=
i_height
%
2
;
i_height
&=
~
0x1
;
#endif
#endif
p_
vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
i_width
=
i_width
;
p_
entry
->
i_width
=
i_width
;
p_
vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
i_height
=
i_height
;
p_
entry
->
i_height
=
i_height
;
if
(
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
b_active
)
if
(
!
p_entry
->
b_active
)
{
p_vout
->
p_sys
->
i_vout
++
;
continue
;
continue
;
}
/* */
memset
(
&
fmt
,
0
,
sizeof
(
video_format_t
)
);
fmt
.
i_width
=
fmt
.
i_visible_width
=
p_vout
->
render
.
i_width
;
fmt
.
i_width
=
fmt
.
i_visible_width
=
p_vout
->
render
.
i_width
;
fmt
.
i_height
=
fmt
.
i_visible_height
=
p_vout
->
render
.
i_height
;
fmt
.
i_height
=
fmt
.
i_visible_height
=
p_vout
->
render
.
i_height
;
fmt
.
i_x_offset
=
fmt
.
i_y_offset
=
0
;
fmt
.
i_x_offset
=
fmt
.
i_y_offset
=
0
;
...
@@ -832,36 +827,40 @@ static int Init( vout_thread_t *p_vout )
...
@@ -832,36 +827,40 @@ static int Init( vout_thread_t *p_vout )
p_vout
->
p_sys
->
i_offset_x
=
0
;
p_vout
->
p_sys
->
i_offset_x
=
0
;
}
}
#endif
#endif
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
=
p_entry
->
p_vout
=
vout_Create
(
p_vout
,
&
fmt
);
vout_Create
(
p_vout
,
&
fmt
);
if
(
p_
vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
==
NULL
)
if
(
p_
entry
->
p_vout
==
NULL
)
{
{
msg_Err
(
p_vout
,
"failed to get %ix%i vout threads"
,
msg_Err
(
p_vout
,
"failed to get %ix%i vout threads"
,
p_vout
->
p_sys
->
i_col
,
p_vout
->
p_sys
->
i_row
);
p_vout
->
p_sys
->
i_col
,
p_vout
->
p_sys
->
i_row
);
RemoveAllVout
(
p_vout
);
RemoveAllVout
(
p_vout
);
return
VLC_EGENERIC
;
return
VLC_EGENERIC
;
}
}
ADD_CALLBACKS
(
ADD_CALLBACKS
(
p_entry
->
p_vout
,
SendEvents
);
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
,
SendEvents
);
#ifdef OVERLAP
#ifdef OVERLAP
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
=
0
;
p_entry
->
p_vout
->
i_alignment
=
0
;
if
(
i_col
==
0
)
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
|=
VOUT_ALIGN_RIGHT
;
if
(
i_col
==
0
)
else
if
(
i_col
==
p_vout
->
p_sys
->
i_col
-
1
)
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
|=
VOUT_ALIGN_LEFT
;
p_entry
->
p_vout
->
i_alignment
|=
VOUT_ALIGN_RIGHT
;
else
if
(
i_col
==
p_vout
->
p_sys
->
i_col
-
1
)
p_entry
->
p_vout
->
i_alignment
|=
VOUT_ALIGN_LEFT
;
if
(
p_vout
->
p_sys
->
i_row
>
1
)
if
(
p_vout
->
p_sys
->
i_row
>
1
)
{
{
if
(
i_row
==
0
)
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
|=
VOUT_ALIGN_BOTTOM
;
if
(
i_row
==
0
)
else
if
(
i_row
==
p_vout
->
p_sys
->
i_row
-
1
)
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
|=
VOUT_ALIGN_TOP
;
p_entry
->
p_vout
->
i_alignment
|=
VOUT_ALIGN_BOTTOM
;
else
if
(
i_row
==
p_vout
->
p_sys
->
i_row
-
1
)
p_entry
->
p_vout
->
i_alignment
|=
VOUT_ALIGN_TOP
;
}
}
// i_n : number of active pp_vout
// i_n : number of active pp_vout
int
i_index
,
i_n
=
p_vout
->
p_sys
->
i_vout
;
int
i_active
=
0
;
for
(
i_index
=
p_vout
->
p_sys
->
i_vout
;
i_index
>=
0
;
i_index
--
)
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_index
].
b_active
)
i_n
-=
1
;
for
(
int
i
=
0
;
i
<=
p_vout
->
p_sys
->
i_vout
;
i
++
)
var_SetInteger
(
p_vout
,
"align"
,
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
->
i_alignment
);
{
var_SetInteger
(
p_vout
,
"video-x"
,
i_video_x
+
p_vout
->
p_sys
->
i_offset_x
+
((
i_n
+
1
)
%
p_vout
->
p_sys
->
i_col
)
*
p_vout
->
i_window_width
);
if
(
p_vout
->
p_sys
->
pp_vout
[
i
].
b_active
)
var_SetInteger
(
p_vout
,
"video-y"
,
i_video_y
+
((
i_n
+
1
)
/
p_vout
->
p_sys
->
i_col
)
*
p_vout
->
i_window_height
);
i_active
++
;
}
var_SetInteger
(
p_vout
,
"align"
,
p_entry
->
p_vout
->
i_alignment
);
var_SetInteger
(
p_vout
,
"video-x"
,
i_video_x
+
p_vout
->
p_sys
->
i_offset_x
+
((
i_active
+
1
)
%
p_vout
->
p_sys
->
i_col
)
*
p_vout
->
i_window_width
);
var_SetInteger
(
p_vout
,
"video-y"
,
i_video_y
+
((
i_active
+
1
)
/
p_vout
->
p_sys
->
i_col
)
*
p_vout
->
i_window_height
);
#endif
#endif
p_vout
->
p_sys
->
i_vout
++
;
}
}
}
}
...
@@ -922,7 +921,7 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -922,7 +921,7 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
int
i_col
,
i_row
,
i_vout
,
i_plane
;
int
i_col
,
i_row
,
i_vout
,
i_plane
;
int
pi_left_skip
[
VOUT_MAX_PLANES
],
pi_top_skip
[
VOUT_MAX_PLANES
];
int
pi_left_skip
[
VOUT_MAX_PLANES
],
pi_top_skip
[
VOUT_MAX_PLANES
];
#ifdef OVERLAP
#ifdef OVERLAP
int
LeftOffset
,
TopOffset
;
int
TopOffset
;
int
constantYUV
[
3
]
=
{
0
,
128
,
128
};
int
constantYUV
[
3
]
=
{
0
,
128
,
128
};
int
Denom
;
int
Denom
;
int
a_2
;
int
a_2
;
...
@@ -931,54 +930,38 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -931,54 +930,38 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
int
i_index
,
i_index2
;
int
i_index
,
i_index2
;
#endif
#endif
i_vout
=
0
;
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_top_skip
[
i_plane
]
=
0
;
pi_top_skip
[
i_plane
]
=
0
;
}
for
(
i_row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
for
(
i_
vout
=
0
,
i_
row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
{
{
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_left_skip
[
i_plane
]
=
0
;
pi_left_skip
[
i_plane
]
=
0
;
}
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
)
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
,
i_vout
++
)
{
{
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
b_active
)
struct
vout_list_t
*
p_entry
=
&
p_vout
->
p_sys
->
pp_vout
[
i_vout
];
if
(
!
p_entry
->
b_active
)
{
{
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
{
pi_left_skip
[
i_plane
]
+=
pi_left_skip
[
i_plane
]
+=
p_entry
->
i_width
*
p_pic
->
p
[
i_plane
].
i_pitch
/
p_vout
->
output
.
i_width
;
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
*
p_pic
->
p
[
i_plane
].
i_pitch
/
p_vout
->
output
.
i_width
;
}
}
i_vout
++
;
continue
;
continue
;
}
}
while
(
(
p_outpic
=
while
(
(
p_outpic
=
vout_CreatePicture
(
p_entry
->
p_vout
,
0
,
0
,
0
))
==
NULL
)
vout_CreatePicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
0
,
0
,
0
)
)
==
NULL
)
{
{
if
(
!
vlc_object_alive
(
p_vout
)
||
p_vout
->
b_error
)
if
(
!
vlc_object_alive
(
p_vout
)
||
p_vout
->
b_error
)
{
{
vout_DestroyPicture
(
vout_DestroyPicture
(
p_entry
->
p_vout
,
p_outpic
);
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
p_outpic
);
return
;
return
;
}
}
msleep
(
VOUT_OUTMEM_SLEEP
);
msleep
(
VOUT_OUTMEM_SLEEP
);
}
}
vout_DatePicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
vout_DatePicture
(
p_entry
->
p_vout
,
p_outpic
,
p_pic
->
date
);
p_outpic
,
p_pic
->
date
);
vout_LinkPicture
(
p_entry
->
p_vout
,
p_outpic
);
vout_LinkPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
p_outpic
);
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
{
...
@@ -987,173 +970,139 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -987,173 +970,139 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
int
i_out_pitch
=
p_outpic
->
p
[
i_plane
].
i_pitch
;
int
i_out_pitch
=
p_outpic
->
p
[
i_plane
].
i_pitch
;
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
int
i_lines
=
p_outpic
->
p
[
i_plane
].
i_visible_lines
;
int
i_lines
=
p_outpic
->
p
[
i_plane
].
i_visible_lines
;
const
int
i_div
=
p_entry
->
i_width
/
i_copy_pitch
;
const
bool
b_row_first
=
i_row
==
0
;
const
bool
b_row_last
=
i_row
+
1
==
p_vout
->
p_sys
->
i_row
;
const
bool
b_col_first
=
i_col
==
0
;
const
bool
b_col_last
=
i_col
+
1
==
p_vout
->
p_sys
->
i_col
;
#ifdef OVERLAP
#ifdef OVERLAP
if
(
i_col
)
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
if
(
!
b_col_first
)
if
((
i_row
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
i_div
;
if
((
p_vout
->
p_sys
->
i_row
>
2
)
&&
(
i_row
==
1
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
if
((
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
].
b_active
))
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
{
if
(
!
b_row_first
&&
b_col_first
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
if
(
p_vout
->
p_sys
->
i_row
>
2
&&
i_row
==
1
&&
b_col_first
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
if
(
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
-
1
].
b_active
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
}
// i_n : previous inactive pp_vout
// i_n : previous inactive pp_vout
int
i_n
=
0
;
int
i_n
=
0
;
while
(
(
i_col
-
i_n
>
1
)
&&
(
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
)
i_n
++
;
while
(
(
i_col
-
i_n
>
1
)
&&
(
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
)
i_n
++
;
if
((
i_col
>
1
)
&&
i_n
)
if
(
i_col
>
1
&&
i_n
)
pi_left_skip
[
i_plane
]
-=
i_n
*
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
pi_left_skip
[
i_plane
]
-=
i_n
*
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
i_div
;
p_in
=
p_pic
->
p
[
i_plane
].
p_pixels
+
pi_top_skip
[
i_plane
]
+
pi_left_skip
[
i_plane
];
/* Wall proprities */
if
((
p_vout
->
p_sys
->
i_row
>
2
)
&&
if
(
p_vout
->
p_sys
->
i_row
>
2
&&
(
b_row_first
||
b_row_last
)
)
((
!
i_row
)
||
(
i_row
+
1
==
p_vout
->
p_sys
->
i_row
)))
i_lines
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
i_div
;
i_lines
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
// 1088 lines bug in a mpeg2 stream of 1080 lines
// 1088 lines bug in a mpeg2 stream of 1080 lines
if
((
p_vout
->
p_sys
->
i_row
-
1
==
i_row
)
&&
if
(
b_row_last
&&
p_pic
->
p
[
i_plane
].
i_lines
==
1088
)
(
p_pic
->
p
[
i_plane
].
i_lines
==
1088
))
i_lines
-=
8
/
i_div
;
i_lines
-=
8
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
p_in_end
=
p_in
+
i_lines
*
p_pic
->
p
[
i_plane
].
i_pitch
;
#else
p_in
=
p_pic
->
p
[
i_plane
].
p_pixels
+
pi_top_skip
[
i_plane
]
+
pi_left_skip
[
i_plane
];
p_in_end
=
p_in
+
i_lines
*
p_pic
->
p
[
i_plane
].
i_pitch
;
#endif
#endif
/* */
p_in
=
&
p_pic
->
p
[
i_plane
].
p_pixels
[
pi_top_skip
[
i_plane
]
+
pi_left_skip
[
i_plane
]
];
/* Wall proprities */
p_in_end
=
&
p_in
[
i_lines
*
p_pic
->
p
[
i_plane
].
i_pitch
];
p_out
=
p_outpic
->
p
[
i_plane
].
p_pixels
;
p_out
=
p_outpic
->
p
[
i_plane
].
p_pixels
;
#ifdef OVERLAP
#ifdef OVERLAP
if
((
p_vout
->
p_sys
->
i_row
>
2
)
&&
(
!
i_row
)
)
if
(
p_vout
->
p_sys
->
i_row
>
2
&&
b_row_first
)
p_out
+=
(
p_outpic
->
p
[
i_plane
].
i_pitch
*
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
))
;
p_out
+=
p_outpic
->
p
[
i_plane
].
i_pitch
*
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
i_div
;
int
length
;
int
i_col_mod
;
int
i_col_mod
;
length
=
2
*
p_vout
->
p_sys
->
i_halfLength
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
int
length
=
2
*
p_vout
->
p_sys
->
i_halfLength
/
i_div
;
if
(
p_vout
->
p_sys
->
b_has_changed
)
if
(
p_vout
->
p_sys
->
b_has_changed
)
{
{
Denom
=
F2
(
length
);
Denom
=
F2
(
length
);
a_2
=
p_vout
->
p_sys
->
a_2
*
(
ACCURACY
/
100
);
a_2
=
p_vout
->
p_sys
->
a_2
*
(
ACCURACY
/
100
);
a_1
=
p_vout
->
p_sys
->
a_1
*
length
*
(
ACCURACY
/
100
);
a_1
=
p_vout
->
p_sys
->
a_1
*
length
*
(
ACCURACY
/
100
);
a_0
=
p_vout
->
p_sys
->
a_0
*
Denom
*
(
ACCURACY
/
100
);
a_0
=
p_vout
->
p_sys
->
a_0
*
Denom
*
(
ACCURACY
/
100
);
for
(
i_col_mod
=
0
;
i_col_mod
<
2
;
i_col_mod
++
)
for
(
i_col_mod
=
0
;
i_col_mod
<
2
;
i_col_mod
++
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
{
p_vout
->
p_sys
->
lambda
[
i_col_mod
][
i_plane
][
i_index
]
=
CLIP_0A
(
!
i_col_mod
?
ACCURACY
-
(
F4
(
a_2
,
a_1
,
i_index
)
+
a_0
)
/
Denom
:
ACCURACY
-
(
F4
(
a_2
,
a_1
,
length
-
i_index
)
+
a_0
)
/
Denom
);
p_vout
->
p_sys
->
lambda
[
i_col_mod
][
i_plane
][
i_index
]
=
CLIP_0A
(
!
i_col_mod
?
ACCURACY
-
(
F4
(
a_2
,
a_1
,
i_index
)
+
a_0
)
/
Denom
:
ACCURACY
-
(
F4
(
a_2
,
a_1
,
length
-
i_index
)
+
a_0
)
/
Denom
);
p_vout
->
p_sys
->
cstYUV
[
i_col_mod
][
i_plane
][
i_index
]
=
((
ACCURACY
-
p_vout
->
p_sys
->
lambda
[
i_col_mod
][
i_plane
][
i_index
])
*
constantYUV
[
i_plane
])
/
ACCURACY
;
p_vout
->
p_sys
->
cstYUV
[
i_col_mod
][
i_plane
][
i_index
]
=
((
ACCURACY
-
p_vout
->
p_sys
->
lambda
[
i_col_mod
][
i_plane
][
i_index
])
*
constantYUV
[
i_plane
])
/
ACCURACY
;
}
}
}
}
}
#endif
#endif
while
(
p_in
<
p_in_end
)
while
(
p_in
<
p_in_end
)
{
{
#ifndef OVERLAP
#ifndef OVERLAP
vlc_memcpy
(
p_out
,
p_in
,
i_copy_pitch
);
vlc_memcpy
(
p_out
,
p_in
,
i_copy_pitch
);
#else
#else
if
(
p_vout
->
p_sys
->
i_col
>
2
)
if
(
p_vout
->
p_sys
->
i_col
>
2
)
{
{
length
/=
2
;
const
int
halfl
=
length
/
2
;
if
(
i_col
==
0
)
if
(
b_col_first
==
0
)
vlc_memcpy
(
p_out
+
length
,
p_in
,
i_copy_pitch
-
length
);
vlc_memcpy
(
&
p_out
[
halfl
],
&
p_in
[
0
],
i_copy_pitch
-
halfl
);
else
if
(
i_col
+
1
==
p_vout
->
p_sys
->
i_col
)
else
if
(
b_col_last
)
vlc_memcpy
(
p_out
,
p_in
-
length
,
i_copy_pitch
-
length
);
vlc_memcpy
(
&
p_out
[
0
],
&
p_in
[
-
halfl
],
i_copy_pitch
-
halfl
);
else
else
vlc_memcpy
(
p_out
,
p_in
-
length
,
i_copy_pitch
);
vlc_memcpy
(
&
p_out
[
0
],
&
p_in
[
-
halfl
]
,
i_copy_pitch
);
if
((
i_col
==
0
))
// black bar
// black bar
{
if
(
b_col_first
)
LeftOffset
=
0
;
memset
(
&
p_out
[
0
],
constantYUV
[
i_plane
],
halfl
);
p_out
+=
LeftOffset
;
else
if
(
b_col_last
)
memset
(
p_out
,
constantYUV
[
i_plane
],
length
);
memset
(
&
p_out
[
i_copy_pitch
-
halfl
],
constantYUV
[
i_plane
],
halfl
);
p_out
-=
LeftOffset
;
}
}
else
if
((
i_col
+
1
==
p_vout
->
p_sys
->
i_col
))
else
// black bar
{
{
LeftOffset
=
i_copy_pitch
-
length
;
vlc_memcpy
(
p_out
,
p_in
,
i_copy_pitch
);
p_out
+=
LeftOffset
;
memset
(
p_out
,
constantYUV
[
i_plane
],
length
);
p_out
-=
LeftOffset
;
}
length
*=
2
;
}
}
else
vlc_memcpy
(
p_out
,
p_in
,
i_copy_pitch
);
if
(
p_vout
->
p_sys
->
b_attenuate
)
if
(
p_vout
->
p_sys
->
b_attenuate
)
{
{
// vertical blend
// vertical blend
// first blended zone
// first blended zone
if
(
i_col
)
if
(
!
b_col_first
)
{
{
LeftOffset
=
0
;
uint8_t
*
p_dst
=
&
p_out
[
0
];
p_out
+=
LeftOffset
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
{
#ifndef GAMMA
#ifndef GAMMA
*
(
p_out
+
i_index
)
=
(
p_vout
->
p_sys
->
lambda
[
1
][
i_plane
][
i_index
]
*
p_dst
[
i_index
]
=
(
p_vout
->
p_sys
->
lambda
[
1
][
i_plane
][
i_index
]
*
p_dst
[
i_index
])
/
ACCURACY
+
(
*
(
p_out
+
i_index
)))
/
ACCURACY
+
p_vout
->
p_sys
->
cstYUV
[
1
][
i_plane
][
i_index
];
p_vout
->
p_sys
->
cstYUV
[
1
][
i_plane
][
i_index
];
#else
#else
*
(
p_out
+
i_index
)
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda
[
1
][
i_plane
][
i_index
]][
*
(
p_out
+
i_index
)
];
p_dst
[
i_index
]
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda
[
1
][
i_plane
][
i_index
]][
p_dst
[
i_index
]
];
#endif
#endif
}
}
p_out
-=
LeftOffset
;
}
}
// second blended zone
// second blended zone
if
(
i_col
+
1
<
p_vout
->
p_sys
->
i_col
)
if
(
!
b_col_last
)
{
{
LeftOffset
=
i_copy_pitch
-
length
;
uint8_t
*
p_dst
=
&
p_out
[
i_copy_pitch
-
length
];
p_out
+=
LeftOffset
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
{
#ifndef GAMMA
#ifndef GAMMA
*
(
p_out
+
i_index
)
=
(
p_vout
->
p_sys
->
lambda
[
0
][
i_plane
][
i_index
]
*
p_dst
[
i_index
]
=
(
p_vout
->
p_sys
->
lambda
[
0
][
i_plane
][
i_index
]
*
p_dst
[
i_index
])
/
ACCURACY
+
(
*
(
p_out
+
i_index
)))
/
ACCURACY
+
p_vout
->
p_sys
->
cstYUV
[
0
][
i_plane
][
i_index
];
p_vout
->
p_sys
->
cstYUV
[
0
][
i_plane
][
i_index
];
#else
#else
fprintf
(
stderr
,
"r=%d c=%d, i_plane=%d i_index=%d | %d %d
\n
"
,
i_row
,
i_col
,
i_plane
,
i_index
,
*
(
p_out
+
i_index
)
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda
[
0
][
i_plane
][
i_index
]][
*
(
p_out
+
i_index
)];
i_copy_pitch
,
length
);
fprintf
(
stderr
,
"# %d
\n
"
,
p_dst
[
i_index
]
);
p_dst
[
i_index
]
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda
[
0
][
i_plane
][
i_index
]][
p_dst
[
i_index
]];
#endif
#endif
}
}
p_out
-=
LeftOffset
;
}
}
// end blended zone
// end blended zone
}
}
#endif
#endif
p_in
+=
i_in_pitch
;
p_in
+=
i_in_pitch
;
p_out
+=
i_out_pitch
;
p_out
+=
i_out_pitch
;
}
}
#ifdef OVERLAP
#ifdef OVERLAP
// horizontal blend
// horizontal blend
if
(
!
p_vout
->
p_sys
->
b_attenuate
)
if
(
p_vout
->
p_sys
->
i_row
>
2
)
{
if
((
i_row
==
0
)
&&
(
p_vout
->
p_sys
->
i_row
>
2
))
// black bar
{
int
height
=
2
*
p_vout
->
p_sys
->
i_halfHeight
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
TopOffset
=
i_lines
+
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
for
(
i_index
=
0
;
i_index
<
height
;
i_index
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
constantYUV
[
i_plane
];
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
else
if
((
i_row
+
1
==
p_vout
->
p_sys
->
i_row
)
&&
(
p_vout
->
p_sys
->
i_row
>
2
))
// black bar
{
int
height
=
2
*
p_vout
->
p_sys
->
i_halfHeight
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
TopOffset
=
height
-
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
for
(
i_index
=
0
;
i_index
<
height
;
i_index
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
constantYUV
[
i_plane
];
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
}
else
{
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
{
{
length
=
2
*
p_vout
->
p_sys
->
i_halfHeight
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
length
=
2
*
p_vout
->
p_sys
->
i_halfHeight
/
i_div
;
if
(
p_vout
->
p_sys
->
b_has_changed
)
if
(
p_vout
->
p_sys
->
b_has_changed
)
{
{
Denom
=
F2
(
length
);
Denom
=
F2
(
length
);
...
@@ -1167,70 +1116,72 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1167,70 +1116,72 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
p_vout
->
p_sys
->
cstYUV2
[
i_col_mod
][
i_plane
][
i_index
]
=
((
ACCURACY
-
p_vout
->
p_sys
->
lambda2
[
i_col_mod
][
i_plane
][
i_index
])
*
constantYUV
[
i_plane
])
/
ACCURACY
;
p_vout
->
p_sys
->
cstYUV2
[
i_col_mod
][
i_plane
][
i_index
]
=
((
ACCURACY
-
p_vout
->
p_sys
->
lambda2
[
i_col_mod
][
i_plane
][
i_index
])
*
constantYUV
[
i_plane
])
/
ACCURACY
;
}
}
}
}
// first blended zone
if
(
i_row
)
if
(
b_row_first
)
{
{
// black bar
TopOffset
=
i_lines
+
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
i_div
;
uint8_t
*
p_dst
=
p_out
-
TopOffset
*
i_out_pitch
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
memset
(
&
p_dst
[
i_index
*
i_out_pitch
],
constantYUV
[
i_plane
],
i_copy_pitch
);
}
else
if
(
p_vout
->
p_sys
->
b_attenuate
)
{
// first blended zone
TopOffset
=
i_lines
;
TopOffset
=
i_lines
;
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
uint8_t
*
p_dst
=
p_out
-
TopOffset
*
i_out_pitch
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
{
#ifndef GAMMA
#ifndef GAMMA
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
(
p_vout
->
p_sys
->
lambda2
[
1
][
i_plane
][
i_index
]
*
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
=
(
p_vout
->
p_sys
->
lambda2
[
1
][
i_plane
][
i_index
]
*
(
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
))
)
/
ACCURACY
+
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
)
/
ACCURACY
+
p_vout
->
p_sys
->
cstYUV2
[
1
][
i_plane
][
i_index
];
p_vout
->
p_sys
->
cstYUV2
[
1
][
i_plane
][
i_index
];
#else
#else
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda2
[
1
][
i_plane
][
i_index
]][
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]];
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda2
[
1
][
i_plane
][
i_index
]][
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)];
#endif
#endif
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
}
else
if
(
p_vout
->
p_sys
->
i_row
>
2
)
}
// black bar
{
TopOffset
=
i_lines
+
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
constantYUV
[
i_plane
];
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
}
// second blended zone
if
(
b_row_last
)
{
// black bar
TopOffset
=
length
-
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
i_div
;
uint8_t
*
p_dst
=
p_out
-
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
if
(
i_row
+
1
<
p_vout
->
p_sys
->
i_row
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
memset
(
&
p_dst
[
i_index
*
i_out_pitch
],
constantYUV
[
i_plane
],
i_copy_pitch
);
}
else
if
(
p_vout
->
p_sys
->
b_attenuate
)
{
{
// second blended zone
TopOffset
=
length
;
TopOffset
=
length
;
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
uint8_t
*
p_dst
=
p_out
-
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
{
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
{
#ifndef GAMMA
#ifndef GAMMA
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
(
p_vout
->
p_sys
->
lambda2
[
0
][
i_plane
][
i_index
]
*
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
=
(
p_vout
->
p_sys
->
lambda2
[
0
][
i_plane
][
i_index
]
*
(
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
))
)
/
ACCURACY
+
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
)
/
ACCURACY
+
p_vout
->
p_sys
->
cstYUV2
[
0
][
i_plane
][
i_index
];
p_vout
->
p_sys
->
cstYUV2
[
0
][
i_plane
][
i_index
];
#else
#else
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda2
[
0
][
i_plane
][
i_index
]][
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)];
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]
=
p_vout
->
p_sys
->
LUT
[
i_plane
][
p_vout
->
p_sys
->
lambda2
[
0
][
i_plane
][
i_index
]][
p_dst
[
i_index
*
i_out_pitch
+
i_index2
]];
#endif
#endif
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
}
else
if
(
p_vout
->
p_sys
->
i_row
>
2
)
// black bar
{
TopOffset
=
length
-
(
2
*
p_vout
->
p_sys
->
i_halfHeight
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
);
p_out
-=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
for
(
i_index
=
0
;
i_index
<
length
;
i_index
++
)
for
(
i_index2
=
0
;
i_index2
<
i_copy_pitch
;
i_index2
++
)
*
(
p_out
+
(
i_index
*
p_outpic
->
p
[
i_plane
].
i_pitch
)
+
i_index2
)
=
constantYUV
[
i_plane
];
p_out
+=
TopOffset
*
p_outpic
->
p
[
i_plane
].
i_pitch
;
}
}
// end blended zone
}
}
// end blended zone
}
}
#endif
#endif
// bug for wall filter : fix by CC
// bug for wall filter : fix by CC
// pi_left_skip[i_plane] += i_out_pitch;
// pi_left_skip[i_plane] += i_out_pitch;
pi_left_skip
[
i_plane
]
+=
i_copy_pitch
;
pi_left_skip
[
i_plane
]
+=
i_copy_pitch
;
}
}
...
@@ -1238,20 +1189,19 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1238,20 +1189,19 @@ static void RenderPlanarYUV( vout_thread_t *p_vout, picture_t *p_pic )
p_outpic
);
p_outpic
);
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
p_outpic
);
p_outpic
);
i_vout
++
;
}
}
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
{
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_height
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
-
1
].
i_height
*
p_pic
->
p
[
i_plane
].
i_lines
*
p_pic
->
p
[
i_plane
].
i_lines
/
p_vout
->
output
.
i_height
/
p_vout
->
output
.
i_height
*
p_pic
->
p
[
i_plane
].
i_pitch
;
*
p_pic
->
p
[
i_plane
].
i_pitch
;
}
}
}
}
#ifdef OVERLAP
#ifdef OVERLAP
if
(
p_vout
->
p_sys
->
b_has_changed
)
p_vout
->
p_sys
->
b_has_changed
=
false
;
if
(
p_vout
->
p_sys
->
b_has_changed
)
p_vout
->
p_sys
->
b_has_changed
=
false
;
#endif
#endif
}
}
...
@@ -1277,21 +1227,15 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1277,21 +1227,15 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
int
i_index
,
i_index2
;
int
i_index
,
i_index2
;
#endif
#endif
i_vout
=
0
;
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_top_skip
[
i_plane
]
=
0
;
pi_top_skip
[
i_plane
]
=
0
;
}
for
(
i_row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
for
(
i_
vout
=
0
,
i_
row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
{
{
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_left_skip
[
i_plane
]
=
0
;
pi_left_skip
[
i_plane
]
=
0
;
}
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
)
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
,
i_vout
++
)
{
{
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
b_active
)
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
b_active
)
{
{
...
@@ -1300,7 +1244,6 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1300,7 +1244,6 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
pi_left_skip
[
i_plane
]
+=
pi_left_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
*
p_pic
->
p
->
i_pixel_pitch
;
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
*
p_pic
->
p
->
i_pixel_pitch
;
}
}
i_vout
++
;
continue
;
continue
;
}
}
...
@@ -1332,10 +1275,17 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1332,10 +1275,17 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
#ifdef OVERLAP
#ifdef OVERLAP
if
(
i_col
)
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
*
p_pic
->
p
->
i_pixel_pitch
;
if
(
i_col
)
if
((
i_row
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
);
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
*
p_pic
->
p
->
i_pixel_pitch
;
if
((
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
].
b_active
))
if
(
p_vout
->
p_sys
->
i_row
>=
2
)
{
if
(
(
i_row
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
);
if
(
(
p_vout
->
p_sys
->
i_row
>
2
)
&&
(
i_row
==
1
)
&&
(
!
i_col
)
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
);
if
(
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
-
1
].
b_active
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
);
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
);
}
// i_n : previous inactive pp_vout
// i_n : previous inactive pp_vout
int
i_n
=
0
;
int
i_n
=
0
;
while
((
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
&&
(
i_col
-
i_n
>
1
))
i_n
++
;
while
((
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
&&
(
i_col
-
i_n
>
1
))
i_n
++
;
...
@@ -1572,12 +1522,11 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1572,12 +1522,11 @@ static void RenderPackedRGB( vout_thread_t *p_vout, picture_t *p_pic )
p_outpic
);
p_outpic
);
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
p_outpic
);
p_outpic
);
i_vout
++
;
}
}
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
{
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_height
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
-
1
].
i_height
*
p_pic
->
p
[
i_plane
].
i_lines
*
p_pic
->
p
[
i_plane
].
i_lines
/
p_vout
->
output
.
i_height
/
p_vout
->
output
.
i_height
*
p_pic
->
p
[
i_plane
].
i_pitch
;
*
p_pic
->
p
[
i_plane
].
i_pitch
;
...
@@ -1613,22 +1562,15 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1613,22 +1562,15 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
int
i_index
,
i_index2
;
int
i_index
,
i_index2
;
#endif
#endif
i_vout
=
0
;
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_top_skip
[
i_plane
]
=
0
;
pi_top_skip
[
i_plane
]
=
0
;
}
for
(
i_row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
for
(
i_
vout
=
0
;,
i_
row
=
0
;
i_row
<
p_vout
->
p_sys
->
i_row
;
i_row
++
)
{
{
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
pi_left_skip
[
i_plane
]
=
0
;
pi_left_skip
[
i_plane
]
=
0
;
}
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
)
for
(
i_col
=
0
;
i_col
<
p_vout
->
p_sys
->
i_col
;
i_col
++
,
i_vout
++
)
{
{
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
b_active
)
if
(
!
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
b_active
)
{
{
...
@@ -1638,7 +1580,6 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1638,7 +1580,6 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
*
p_pic
->
p
[
i_plane
].
i_pitch
/
p_vout
->
output
.
i_width
;
*
p_pic
->
p
[
i_plane
].
i_pitch
/
p_vout
->
output
.
i_width
;
}
}
i_vout
++
;
continue
;
continue
;
}
}
...
@@ -1668,18 +1609,19 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1668,18 +1609,19 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
int
i_in_pitch
=
p_pic
->
p
[
i_plane
].
i_pitch
;
int
i_in_pitch
=
p_pic
->
p
[
i_plane
].
i_pitch
;
int
i_out_pitch
=
p_outpic
->
p
[
i_plane
].
i_pitch
;
int
i_out_pitch
=
p_outpic
->
p
[
i_plane
].
i_pitch
;
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
int
i_copy_pitch
=
p_outpic
->
p
[
i_plane
].
i_visible_pitch
;
const
int
i_div
=
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
;
#ifdef OVERLAP
#ifdef OVERLAP
if
(
i_col
)
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
if
(
i_col
)
pi_left_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
i_div
;
if
((
i_row
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
if
((
p_vout
->
p_sys
->
i_row
>=
2
)
&&
(
i_row
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
if
((
p_vout
->
p_sys
->
i_row
>
2
)
&&
(
i_row
==
1
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
if
((
p_vout
->
p_sys
->
i_row
>
2
)
&&
(
i_row
==
1
)
&&
(
!
i_col
))
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
if
((
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
].
b_active
)
)
if
(
!
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_col
-
1
].
b_active
)
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
pi_top_skip
[
i_plane
]
-=
(
2
*
p_vout
->
p_sys
->
i_halfHeight
*
i_row
*
p_pic
->
p
[
i_plane
].
i_pitch
)
/
i_div
;
// i_n : previous inactive pp_vout
// i_n : previous inactive pp_vout
int
i_n
=
0
;
int
i_n
=
0
;
while
((
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
&&
(
i_col
-
i_n
>
1
))
i_n
++
;
while
((
!
p_vout
->
p_sys
->
pp_vout
[
i_row
*
p_vout
->
p_sys
->
i_col
+
i_col
-
1
-
i_n
].
b_active
)
&&
(
i_col
-
i_n
>
1
))
i_n
++
;
if
((
i_col
>
1
)
&&
i_n
)
if
((
i_col
>
1
)
&&
i_n
)
pi_left_skip
[
i_plane
]
-=
i_n
*
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_width
/
i_copy_pitch
)
;
pi_left_skip
[
i_plane
]
-=
i_n
*
(
2
*
p_vout
->
p_sys
->
i_halfLength
)
/
i_div
;
p_in
=
p_pic
->
p
[
i_plane
].
p_pixels
p_in
=
p_pic
->
p
[
i_plane
].
p_pixels
/* Wall proprities */
/* Wall proprities */
...
@@ -1878,12 +1820,11 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1878,12 +1820,11 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
p_outpic
);
p_outpic
);
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
vout_DisplayPicture
(
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
p_vout
,
p_outpic
);
p_outpic
);
i_vout
++
;
}
}
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
for
(
i_plane
=
0
;
i_plane
<
p_pic
->
i_planes
;
i_plane
++
)
{
{
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
].
i_height
pi_top_skip
[
i_plane
]
+=
p_vout
->
p_sys
->
pp_vout
[
i_vout
-
1
].
i_height
*
p_pic
->
p
[
i_plane
].
i_lines
*
p_pic
->
p
[
i_plane
].
i_lines
/
p_vout
->
output
.
i_height
/
p_vout
->
output
.
i_height
*
p_pic
->
p
[
i_plane
].
i_pitch
;
*
p_pic
->
p
[
i_plane
].
i_pitch
;
...
@@ -1901,15 +1842,13 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
...
@@ -1901,15 +1842,13 @@ static void RenderPackedYUV( vout_thread_t *p_vout, picture_t *p_pic )
*****************************************************************************/
*****************************************************************************/
static
void
RemoveAllVout
(
vout_thread_t
*
p_vout
)
static
void
RemoveAllVout
(
vout_thread_t
*
p_vout
)
{
{
while
(
p_vout
->
p_sys
->
i_vout
)
for
(
int
i
=
0
;
i
<
p_vout
->
p_sys
->
i_vout
;
i
++
)
{
{
--
p_vout
->
p_sys
->
i_vout
;
if
(
p_vout
->
p_sys
->
pp_vout
[
i
].
b_active
)
if
(
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
b_active
)
{
{
DEL_CALLBACKS
(
DEL_CALLBACKS
(
p_vout
->
p_sys
->
pp_vout
[
i
].
p_vout
,
SendEvents
);
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
,
vout_CloseAndRelease
(
p_vout
->
p_sys
->
pp_vout
[
i
].
p_vout
);
SendEvents
);
p_vout
->
p_sys
->
pp_vout
[
i
].
p_vout
=
NULL
;
vout_CloseAndRelease
(
p_vout
->
p_sys
->
pp_vout
[
p_vout
->
p_sys
->
i_vout
].
p_vout
);
}
}
}
}
}
}
...
...
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