#include <string.h>
#include <math.h>
-#include <st.h>
+#ifdef SOX14
+# include <sox.h>
+# define ST_EOF SOX_EOF
+# define ST_SUCCESS SOX_SUCCESS
+# define st_sample_t sox_sample_t
+# define eff_t sox_effect_t*
+# define st_size_t sox_size_t
+# define ST_LIB_VERSION_CODE SOX_LIB_VERSION_CODE
+# define ST_LIB_VERSION SOX_LIB_VERSION
+# define ST_SIGNED_WORD_TO_SAMPLE(d,clips) SOX_SIGNED_16BIT_TO_SAMPLE(d,clips)
+# define ST_SSIZE_MIN SOX_SSIZE_MIN
+# define ST_SAMPLE_TO_SIGNED_WORD(d,clips) SOX_SAMPLE_TO_SIGNED_16BIT(d,clips)
+#else
+# include <st.h>
+#endif
#define BUFFER_LEN 8192
#define AMPLITUDE_NORM 0.2511886431509580 /* -12dBFS */
static int create_effect( mlt_filter this, char *value, int count, int channel, int frequency )
{
mlt_tokeniser tokeniser = mlt_tokeniser_init();
+#ifdef SOX14
+ eff_t eff = mlt_pool_alloc( sizeof( sox_effect_t ) );
+#else
eff_t eff = mlt_pool_alloc( sizeof( struct st_effect ) );
+#endif
char id[ 256 ];
int error = 1;
// Tokenise the effect specification
mlt_tokeniser_parse_new( tokeniser, value, " " );
+ if ( tokeniser->count < 1 )
+ return error;
// Locate the effect
+#ifdef SOX14
+ //fprintf(stderr, "%s: effect %s count %d\n", __FUNCTION__, tokeniser->tokens[0], tokeniser->count );
+ sox_create_effect( eff, sox_find_effect( tokeniser->tokens[0] ) );
+ int opt_count = tokeniser->count - 1;
+#else
int opt_count = st_geteffect_opt( eff, tokeniser->count, tokeniser->tokens );
+#endif
// If valid effect
if ( opt_count != ST_EOF )
{
// Supply the effect parameters
+#ifdef SOX14
+ if ( ( * eff->handler.getopts )( eff, opt_count, &tokeniser->tokens[ tokeniser->count > 1 ? 1 : 0 ] ) == ST_SUCCESS )
+#else
if ( ( * eff->h->getopts )( eff, opt_count, &tokeniser->tokens[ tokeniser->count - opt_count ] ) == ST_SUCCESS )
+#endif
{
// Set the sox signal parameters
eff->ininfo.rate = frequency;
eff->outinfo.channels = 1;
// Start the effect
+#ifdef SOX14
+ if ( ( * eff->handler.start )( eff ) == ST_SUCCESS )
+#else
if ( ( * eff->h->start )( eff ) == ST_SUCCESS )
+#endif
{
// Construct id
sprintf( id, "_effect_%d_%d", count, channel );
st_sample_t *output_buffer = mlt_properties_get_data( filter_properties, "output_buffer", NULL );
int channels_avail = *channels;
int i; // channel
- int count = mlt_properties_get_int( filter_properties, "effect_count" );
+ int count = mlt_properties_get_int( filter_properties, "_effect_count" );
// Get the producer's audio
mlt_frame_get_audio( frame, buffer, format, frequency, &channels_avail, samples );
}
// Save the number of filters
- mlt_properties_set_int( filter_properties, "effect_count", count );
+ mlt_properties_set_int( filter_properties, "_effect_count", count );
}
if ( *samples > 0 && count > 0 )
float saved_gain = 1.0;
// XXX: hack to apply the normalised gain level to the vol effect
+#ifdef SOX14
+ if ( normalise && strcmp( e->handler.name, "vol" ) == 0 )
+#else
if ( normalise && strcmp( e->name, "vol" ) == 0 )
+#endif
{
float *f = ( float * )( e->priv );
saved_gain = *f;
}
// Apply the effect
+#ifdef SOX14
+ if ( ( * e->handler.flow )( e, input_buffer, output_buffer, &isamp, &osamp ) == ST_SUCCESS )
+#else
if ( ( * e->h->flow )( e, input_buffer, output_buffer, &isamp, &osamp ) == ST_SUCCESS )
+#endif
{
// Swap input and output buffer pointers for subsequent effects
p = input_buffer;
}
// XXX: hack to restore the original vol gain to prevent accumulation
+#ifdef SOX14
+ if ( normalise && strcmp( e->handler.name, "vol" ) == 0 )
+#else
if ( normalise && strcmp( e->name, "vol" ) == 0 )
+#endif
{
float *f = ( float * )( e->priv );
*f = saved_gain;