int lang_q(){
printf("\33[0;32m");
/* U32 cnt = src_one();
char* ptr = var->src_ptr;
var->src_ptr += cnt;
U8* address = (U8*)strtol(ptr,NULL,16);
*/
U8* address = (U8*)(var->sp_meow->TOS);
if(!verify_ptr(address+64)){
src_error("q: illegal address\n");
return 0;
}
// printf("SP_MEOW ADDRESS %p\n",address);
address = lang_ql(address);
address = lang_ql(address);
address = lang_ql(address);
address = lang_ql(address);
var->sp_meow->TOS = (U32)address;
printf("\33[0;37m");
return 1;
}
static void
callback_reset_test (int converter)
{ static TEST_CB_DATA test_callback_data ;
static float output [BUFFER_LEN] ;
SRC_STATE *src_state ;
double src_ratio = 1.1 ;
long read_count, read_total ;
int k, error ;
printf ("\tcallback_reset_test (%-28s) ....... ", src_get_name (converter)) ;
fflush (stdout) ;
for (k = 0 ; k < ARRAY_LEN (data_one) ; k++)
{ data_one [k] = 1.0 ;
data_zero [k] = 0.0 ;
} ;
if ((src_state = src_callback_new (test_callback_func, converter, 1, &error, &test_callback_data)) == NULL)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
/* Process a bunch of 1.0 valued samples. */
test_callback_data.channels = 1 ;
test_callback_data.count = 0 ;
test_callback_data.total = ARRAY_LEN (data_one) ;
test_callback_data.data = data_one ;
read_total = 0 ;
do
{ read_count = (ARRAY_LEN (output) - read_total > CB_READ_LEN) ? CB_READ_LEN : ARRAY_LEN (output) - read_total ;
read_count = src_callback_read (src_state, src_ratio, read_count, output + read_total) ;
read_total += read_count ;
}
while (read_count > 0) ;
/* Check for errors. */
if ((error = src_error (src_state)) != 0)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
/* Reset the state of the converter.*/
src_reset (src_state) ;
/* Process a bunch of 0.0 valued samples. */
test_callback_data.channels = 1 ;
test_callback_data.count = 0 ;
test_callback_data.total = ARRAY_LEN (data_zero) ;
test_callback_data.data = data_zero ;
/* Now process some zero data. */
read_total = 0 ;
do
{ read_count = (ARRAY_LEN (output) - read_total > CB_READ_LEN) ? CB_READ_LEN : ARRAY_LEN (output) - read_total ;
read_count = src_callback_read (src_state, src_ratio, read_count, output + read_total) ;
read_total += read_count ;
}
while (read_count > 0) ;
/* Check for errors. */
if ((error = src_error (src_state)) != 0)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
/* Finally make sure that the output data is zero ie reset was sucessful. */
for (k = 0 ; k < BUFFER_LEN / 2 ; k++)
if (output [k] != 0.0)
{ printf ("\n\nLine %d : output [%d] should be 0.0, is %f.\n\n", __LINE__, k, output [k]) ;
save_oct_float ("output.dat", data_one, ARRAY_LEN (data_one), output, ARRAY_LEN (output)) ;
exit (1) ;
} ;
/* Make sure that this function has been exported. */
src_set_ratio (src_state, 1.0) ;
/* Delete converter. */
src_state = src_delete (src_state) ;
puts ("ok") ;
} /* callback_reset_test */
static void
callback_test (int converter, double src_ratio)
{ static TEST_CB_DATA test_callback_data ;
static float output [BUFFER_LEN] ;
SRC_STATE *src_state ;
long read_count, read_total ;
int input_len, output_len, error ;
printf ("\tcallback_test (SRC ratio = %6.4f) ........... ", src_ratio) ;
fflush (stdout) ;
/* Calculate maximun input and output lengths. */
if (src_ratio >= 1.0)
{ output_len = BUFFER_LEN ;
input_len = (int) floor (BUFFER_LEN / src_ratio) ;
}
else
{ input_len = BUFFER_LEN ;
output_len = (int) floor (BUFFER_LEN * src_ratio) ;
} ;
/* Reduce input_len by 10 so output is longer than necessary. */
input_len -= 10 ;
if (output_len > BUFFER_LEN)
{ printf ("\n\nLine %d : output_len > BUFFER_LEN\n\n", __LINE__) ;
exit (1) ;
} ;
test_callback_data.channels = 1 ;
test_callback_data.count = 0 ;
test_callback_data.total = input_len ;
if ((src_state = src_callback_new (test_callback_func, converter, 1, &error, &test_callback_data)) == NULL)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
read_total = 0 ;
do
{ read_count = (ARRAY_LEN (output) - read_total > CB_READ_LEN) ? CB_READ_LEN : ARRAY_LEN (output) - read_total ;
read_count = src_callback_read (src_state, src_ratio, read_count, output + read_total) ;
read_total += read_count ;
}
while (read_count > 0) ;
if ((error = src_error (src_state)) != 0)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
src_state = src_delete (src_state) ;
if (fabs (read_total - src_ratio * input_len) > 2)
{ printf ("\n\nLine %d : input / output length mismatch.\n\n", __LINE__) ;
printf (" input len : %d\n", input_len) ;
printf (" output len : %ld (should be %g +/- 2)\n\n", read_total, floor (0.5 + src_ratio * input_len)) ;
exit (1) ;
} ;
puts ("ok") ;
return ;
} /* callback_test */
static void
callback_test (int converter, int channel_count, double target_snr)
{ TEST_CB_DATA test_callback_data ;
SRC_STATE *src_state = NULL ;
double freq, snr, src_ratio ;
int ch, error, frames, read_total, read_count ;
printf ("\t%-22s (%d channel%c) ............. ", "callback_test", channel_count, channel_count > 1 ? 's' : ' ') ;
fflush (stdout) ;
memset (input_serial, 0, sizeof (input_serial)) ;
memset (input_interleaved, 0, sizeof (input_interleaved)) ;
memset (output_interleaved, 0, sizeof (output_interleaved)) ;
memset (output_serial, 0, sizeof (output_serial)) ;
memset (&test_callback_data, 0, sizeof (test_callback_data)) ;
frames = MIN (ARRAY_LEN (input_serial) / channel_count, 1 << 16) ;
/* Calculate channel_count separate windowed sine waves. */
for (ch = 0 ; ch < channel_count ; ch++)
{ freq = (200.0 + 33.333333333 * ch) / 44100.0 ;
gen_windowed_sines (1, &freq, 1.0, input_serial + ch * frames, frames) ;
} ;
/* Interleave the data in preparation for SRC. */
interleave_data (input_serial, input_interleaved, frames, channel_count) ;
/* Perform sample rate conversion. */
src_ratio = 0.95 ;
test_callback_data.channels = channel_count ;
test_callback_data.total_frames = frames ;
test_callback_data.current_frame = 0 ;
test_callback_data.data = input_interleaved ;
if ((src_state = src_callback_new (test_callback_func, converter, channel_count, &error, &test_callback_data)) == NULL)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
read_total = 0 ;
while (read_total < frames)
{ read_count = src_callback_read (src_state, src_ratio, frames - read_total, output_interleaved + read_total * channel_count) ;
if (read_count <= 0)
break ;
read_total += read_count ;
} ;
if ((error = src_error (src_state)) != 0)
{ printf ("\n\nLine %d : %s\n\n", __LINE__, src_strerror (error)) ;
exit (1) ;
} ;
src_state = src_delete (src_state) ;
if (fabs (read_total - src_ratio * frames) > 2)
{ printf ("\n\nLine %d : bad output data length %d should be %d.\n", __LINE__,
read_total, (int) floor (src_ratio * frames)) ;
printf ("\tsrc_ratio : %.4f\n", src_ratio) ;
printf ("\tinput_len : %d\n", frames) ;
printf ("\toutput_len : %d\n\n", read_total) ;
exit (1) ;
} ;
/* De-interleave data so SNR can be calculated for each channel. */
deinterleave_data (output_interleaved, output_serial, frames, channel_count) ;
for (ch = 0 ; ch < channel_count ; ch++)
{ snr = calculate_snr (output_serial + ch * frames, frames, 1) ;
if (snr < target_snr)
{ printf ("\n\nLine %d: channel %d snr %f should be %f\n", __LINE__, ch, snr, target_snr) ;
save_oct_float ("output.dat", input_serial, channel_count * frames, output_serial, channel_count * frames) ;
exit (1) ;
} ;
} ;
puts ("ok") ;
return ;
} /* callback_test */
