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dsd-fme/src/p25p1_ldu1.c
lwvmobile c08dcb064c P25p1 - Zero LSD if Enc Voice; #166
2023-10-21 13:38:28 -04:00

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/*
* Copyright (C) 2010 DSD Author
* GPG Key ID: 0x3F1D7FD0 (74EF 430D F7F2 0A48 FCE6 F630 FAA2 635D 3F1D 7FD0)
*
* Permission to use, copy, modify, and/or distribute this software for any
* purpose with or without fee is hereby granted, provided that the above
* copyright notice and this permission notice appear in all copies.
*
* THE SOFTWARE IS PROVIDED "AS IS" AND ISC DISCLAIMS ALL WARRANTIES WITH
* REGARD TO THIS SOFTWARE INCLUDING ALL IMPLIED WARRANTIES OF MERCHANTABILITY
* AND FITNESS. IN NO EVENT SHALL ISC BE LIABLE FOR ANY SPECIAL, DIRECT,
* INDIRECT, OR CONSEQUENTIAL DAMAGES OR ANY DAMAGES WHATSOEVER RESULTING FROM
* LOSS OF USE, DATA OR PROFITS, WHETHER IN AN ACTION OF CONTRACT, NEGLIGENCE
* OR OTHER TORTIOUS ACTION, ARISING OUT OF OR IN CONNECTION WITH THE USE OR
* PERFORMANCE OF THIS SOFTWARE.
*/
#include "dsd.h"
#include "p25p1_const.h"
#include "p25p1_ldu.h"
#include "p25p1_check_ldu.h"
#include "p25p1_hdu.h"
void
processLDU1 (dsd_opts* opts, dsd_state* state)
{
// extracts IMBE frames from LDU frame
int i;
uint8_t lcformat[9], mfid[9], lcinfo[57];
char lsd1[9], lsd2[9];
uint8_t lsd_hex1, lsd_hex2; uint8_t lowspeeddata[32]; memset (lowspeeddata, 0, sizeof(lowspeeddata));
int status_count; int lsd1_okay, lsd2_okay = 0;
char hex_data[12][6]; // Data in hex-words (6 bit words). A total of 12 hex words.
char hex_parity[12][6]; // Parity of the data, again in hex-word format. A total of 12 parity hex words.
int irrecoverable_errors;
AnalogSignal analog_signal_array[12*(3+2)+12*(3+2)];
int analog_signal_index;
analog_signal_index = 0;
// we skip the status dibits that occur every 36 symbols
// the first IMBE frame starts 14 symbols before next status
// so we start counter at 36-14-1 = 21
status_count = 21;
if (opts->errorbars == 1)
{
//fprintf (stderr, "e:");
}
// IMBE 1
#ifdef TRACE_DSD
state->debug_prefix_2 = '0';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// IMBE 2
#ifdef TRACE_DSD
state->debug_prefix_2 = '1';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 2
read_and_correct_hex_word (opts, state, &(hex_data[11][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[10][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 9][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 8][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[0*5].sequence_broken = 1;
// IMBE 3
#ifdef TRACE_DSD
state->debug_prefix_2 = '2';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 3
read_and_correct_hex_word (opts, state, &(hex_data[ 7][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 6][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 5][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 4][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[4*5].sequence_broken = 1;
// IMBE 4
#ifdef TRACE_DSD
state->debug_prefix_2 = '3';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 4
read_and_correct_hex_word (opts, state, &(hex_data[ 3][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 2][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 1][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_data[ 0][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[8*5].sequence_broken = 1;
// IMBE 5
#ifdef TRACE_DSD
state->debug_prefix_2 = '4';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 5
read_and_correct_hex_word (opts, state, &(hex_parity[11][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[10][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 9][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 8][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[12*5].sequence_broken = 1;
// IMBE 6
#ifdef TRACE_DSD
state->debug_prefix_2 = '5';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 6
read_and_correct_hex_word (opts, state, &(hex_parity[ 7][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 6][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 5][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 4][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[16*5].sequence_broken = 1;
// IMBE 7
#ifdef TRACE_DSD
state->debug_prefix_2 = '6';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 7
read_and_correct_hex_word (opts, state, &(hex_parity[ 3][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 2][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 1][0]), &status_count, analog_signal_array, &analog_signal_index);
read_and_correct_hex_word (opts, state, &(hex_parity[ 0][0]), &status_count, analog_signal_array, &analog_signal_index);
analog_signal_array[20*5].sequence_broken = 1;
// IMBE 8
#ifdef TRACE_DSD
state->debug_prefix_2 = '7';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
// Read data after IMBE 8: LSD (low speed data)
{
char lsd[8];
char cyclic_parity[8];
for (i=0; i<=6; i+=2)
{
read_dibit(opts, state, lsd+i, &status_count, NULL, NULL);
}
for (i=0; i<=6; i+=2)
{
read_dibit(opts, state, cyclic_parity+i, &status_count, NULL, NULL);
}
lsd_hex1 = 0;
for (i=0; i<8; i++)
{
lsd_hex1 = lsd_hex1 << 1;
lsd1[i] = lsd[i] + '0';
lsd_hex1 |= (uint8_t)lsd[i];
lowspeeddata[i+0] = (uint8_t)lsd1[i];
lowspeeddata[i+8] = (uint8_t)cyclic_parity[i];
}
for (i=0; i<=6; i+=2)
{
read_dibit(opts, state, lsd+i, &status_count, NULL, NULL);
}
for (i=0; i<=6; i+=2)
{
read_dibit(opts, state, cyclic_parity+i, &status_count, NULL, NULL);
}
lsd_hex2 = 0;
for (i=0; i<8; i++)
{
lsd_hex2 = lsd_hex2 << 1;
lsd2[i] = lsd[i] + '0';
lsd_hex2 |= (uint8_t)lsd[i];
lowspeeddata[i+16] = (uint8_t)lsd2[i];
lowspeeddata[i+24] = (uint8_t)cyclic_parity[i];
}
// TODO: error correction of the LSD bytes... <--THIS!
// TODO: do something useful with the LSD bytes... <--THIS!
state->dropL += 2; //need to skip 2 here for the LSD bytes
}
// IMBE 9
#ifdef TRACE_DSD
state->debug_prefix_2 = '8';
#endif
process_IMBE (opts, state, &status_count);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoice(opts, state);
if (opts->floating_point == 0 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceSS(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 1)
playSynthesizedVoiceFM(opts, state);
if (opts->floating_point == 1 && opts->pulse_digi_out_channels == 2)
playSynthesizedVoiceFS(opts, state);
if (opts->errorbars == 1)
{
fprintf (stderr, "\n");
}
if (opts->p25status == 1)
{
fprintf (stderr, "lsd1: %s lsd2: %s\n", lsd1, lsd2);
}
// trailing status symbol
{
int status;
status = getDibit (opts, state) + '0';
// TODO: do something useful with the status bits...
UNUSED(status);
}
// Error correct the hex_data using Reed-Solomon hex_parity
irrecoverable_errors = check_and_fix_reedsolomon_24_12_13((char*)hex_data, (char*)hex_parity);
if (irrecoverable_errors == 1)
{
state->debug_header_critical_errors++;
// We can correct (13-1)/2 = 6 errors. If we failed, it means that there were more than 6 errors in
// these 12+12 words. But take into account that each hex word was already error corrected with
// Hamming(10,6,3), which can correct 1 bits on each sequence of (6+4) bits. We could say that there
// were 7 errors of 2 bits.
update_error_stats(&state->p25_heuristics, 12*6+12*6, 7*2);
}
else
{
// Same comments as in processHDU. See there.
char fixed_parity[12*6];
// Correct the dibits that we read according with hex_data values
correct_hamming_dibits((char*)hex_data, 12, analog_signal_array);
// Generate again the Reed-Solomon parity
encode_reedsolomon_24_12_13((char*)hex_data, fixed_parity);
// Correct the dibits that we read according with the fixed parity values
correct_hamming_dibits(fixed_parity, 12, analog_signal_array+12*(3+2));
// Once corrected, contribute this information to the heuristics module
contribute_to_heuristics(state->rf_mod, &(state->p25_heuristics), analog_signal_array, 12*(3+2)+12*(3+2));
}
#ifdef HEURISTICS_DEBUG
fprintf (stderr, "(audio errors, header errors, critical header errors) (%i,%i,%i)\n",
state->debug_audio_errors, state->debug_header_errors, state->debug_header_critical_errors);
#endif
// Now put the corrected data into the DSD structures
lcformat[8] = 0;
mfid[8] = 0;
lcinfo[56] = 0;
lsd1[8] = 0;
lsd2[8] = 0;
lcformat[0] = hex_data[11][0] + '0';
lcformat[1] = hex_data[11][1] + '0';
lcformat[2] = hex_data[11][2] + '0';
lcformat[3] = hex_data[11][3] + '0';
lcformat[4] = hex_data[11][4] + '0';
lcformat[5] = hex_data[11][5] + '0';
lcformat[6] = hex_data[10][0] + '0';
lcformat[7] = hex_data[10][1] + '0';
mfid[0] = hex_data[10][2] + '0';
mfid[1] = hex_data[10][3] + '0';
mfid[2] = hex_data[10][4] + '0';
mfid[3] = hex_data[10][5] + '0';
mfid[4] = hex_data[ 9][0] + '0';
mfid[5] = hex_data[ 9][1] + '0';
mfid[6] = hex_data[ 9][2] + '0';
mfid[7] = hex_data[ 9][3] + '0';
lcinfo[0] = hex_data[ 9][4] + '0';
lcinfo[1] = hex_data[ 9][5] + '0';
lcinfo[2] = hex_data[ 8][0] + '0';
lcinfo[3] = hex_data[ 8][1] + '0';
lcinfo[4] = hex_data[ 8][2] + '0';
lcinfo[5] = hex_data[ 8][3] + '0';
lcinfo[6] = hex_data[ 8][4] + '0';
lcinfo[7] = hex_data[ 8][5] + '0';
lcinfo[8] = hex_data[ 7][0] + '0';
lcinfo[9] = hex_data[ 7][1] + '0';
lcinfo[10] = hex_data[ 7][2] + '0';
lcinfo[11] = hex_data[ 7][3] + '0';
lcinfo[12] = hex_data[ 7][4] + '0';
lcinfo[13] = hex_data[ 7][5] + '0';
lcinfo[14] = hex_data[ 6][0] + '0';
lcinfo[15] = hex_data[ 6][1] + '0';
lcinfo[16] = hex_data[ 6][2] + '0';
lcinfo[17] = hex_data[ 6][3] + '0';
lcinfo[18] = hex_data[ 6][4] + '0';
lcinfo[19] = hex_data[ 6][5] + '0';
lcinfo[20] = hex_data[ 5][0] + '0';
lcinfo[21] = hex_data[ 5][1] + '0';
lcinfo[22] = hex_data[ 5][2] + '0';
lcinfo[23] = hex_data[ 5][3] + '0';
lcinfo[24] = hex_data[ 5][4] + '0';
lcinfo[25] = hex_data[ 5][5] + '0';
lcinfo[26] = hex_data[ 4][0] + '0';
lcinfo[27] = hex_data[ 4][1] + '0';
lcinfo[28] = hex_data[ 4][2] + '0';
lcinfo[29] = hex_data[ 4][3] + '0';
lcinfo[30] = hex_data[ 4][4] + '0';
lcinfo[31] = hex_data[ 4][5] + '0';
lcinfo[32] = hex_data[ 3][0] + '0';
lcinfo[33] = hex_data[ 3][1] + '0';
lcinfo[34] = hex_data[ 3][2] + '0';
lcinfo[35] = hex_data[ 3][3] + '0';
lcinfo[36] = hex_data[ 3][4] + '0';
lcinfo[37] = hex_data[ 3][5] + '0';
lcinfo[38] = hex_data[ 2][0] + '0';
lcinfo[39] = hex_data[ 2][1] + '0';
lcinfo[40] = hex_data[ 2][2] + '0';
lcinfo[41] = hex_data[ 2][3] + '0';
lcinfo[42] = hex_data[ 2][4] + '0';
lcinfo[43] = hex_data[ 2][5] + '0';
lcinfo[44] = hex_data[ 1][0] + '0';
lcinfo[45] = hex_data[ 1][1] + '0';
lcinfo[46] = hex_data[ 1][2] + '0';
lcinfo[47] = hex_data[ 1][3] + '0';
lcinfo[48] = hex_data[ 1][4] + '0';
lcinfo[49] = hex_data[ 1][5] + '0';
lcinfo[50] = hex_data[ 0][0] + '0';
lcinfo[51] = hex_data[ 0][1] + '0';
lcinfo[52] = hex_data[ 0][2] + '0';
lcinfo[53] = hex_data[ 0][3] + '0';
lcinfo[54] = hex_data[ 0][4] + '0';
lcinfo[55] = hex_data[ 0][5] + '0';
int j;
uint8_t LCW_bytes[9];
uint8_t LCW_bits[72];
memset (LCW_bytes, 0, sizeof(LCW_bytes));
memset (LCW_bits, 0, sizeof(LCW_bits));
//load array above into byte form first
LCW_bytes[0] = (uint8_t) ConvertBitIntoBytes(&lcformat[0], 8);
LCW_bytes[1] = (uint8_t) ConvertBitIntoBytes(&mfid[0], 8);
for (i = 0; i < 7; i++) LCW_bytes[i+2] = (uint8_t) ConvertBitIntoBytes(&lcinfo[i*8], 8);
//load as bit array next (easier to process data in bit form)
for(i = 0, j = 0; i < 9; i++, j+=8)
{
LCW_bits[j + 0] = (LCW_bytes[i] >> 7) & 0x01;
LCW_bits[j + 1] = (LCW_bytes[i] >> 6) & 0x01;
LCW_bits[j + 2] = (LCW_bytes[i] >> 5) & 0x01;
LCW_bits[j + 3] = (LCW_bytes[i] >> 4) & 0x01;
LCW_bits[j + 4] = (LCW_bytes[i] >> 3) & 0x01;
LCW_bits[j + 5] = (LCW_bytes[i] >> 2) & 0x01;
LCW_bits[j + 6] = (LCW_bytes[i] >> 1) & 0x01;
LCW_bits[j + 7] = (LCW_bytes[i] >> 0) & 0x01;
}
//send to new P25 LCW function
if (irrecoverable_errors == 0)
{
fprintf (stderr, "%s", KYEL);
p25_lcw (opts, state, LCW_bits, 0);
fprintf (stderr, "%s", KNRM);
}
else
{
fprintf (stderr, "%s",KRED);
fprintf (stderr, " LCW FEC ERR ");
fprintf (stderr, "%s\n", KNRM);
}
//NOTE: LSD is also encrypted if voice is encrypted, so let's just zip it for now
if (state->payload_algid != 0x80)
{
lsd_hex1 = 0;
lsd_hex2 = 0;
}
//WIP: LSD FEC
lsd1_okay = p25p1_lsd_fec (lowspeeddata+0);
lsd2_okay = p25p1_lsd_fec (lowspeeddata+16);
if (opts->payload == 1)
{
fprintf (stderr, "%s",KCYN);
fprintf (stderr, " P25 LCW Payload ");
for (i = 0; i < 9; i++)
{
fprintf (stderr, "[%02X]", LCW_bytes[i]);
}
//view Low Speed Data
fprintf (stderr, "%s",KCYN);
fprintf (stderr, " LSD: %02X %02X ", lsd_hex1, lsd_hex2);
if ( (lsd_hex1 > 0x19) && (lsd_hex1 < 0x7F) && (lsd1_okay == 1) ) fprintf (stderr, "(%c", lsd_hex1);
else fprintf (stderr, "( ");
if ( (lsd_hex2 > 0x19) && (lsd_hex2 < 0x7F) && (lsd2_okay == 1) ) fprintf (stderr, "%c)", lsd_hex2);
else fprintf (stderr, " )");
if (lsd1_okay == 0) fprintf (stderr, " L1 ERR");
if (lsd2_okay == 0) fprintf (stderr, " L2 ERR");
fprintf (stderr, "%s\n", KNRM);
}
//TEST: Store LSD into array if 0x02 0x08 (opcode and len?)
int k = 0;
if (state->dmr_alias_format[0] == 0x02)
{
k = state->data_block_counter[0];
if ( (lsd_hex1 > 0x19) && (lsd_hex1 < 0x7F) && (lsd1_okay == 1) )
state->dmr_alias_block_segment[0][0][k/4][k%4] = (char)lsd_hex1;
// else state->dmr_alias_block_segment[0][0][k/4][k%4] = 0x20;
k++;
if ( (lsd_hex2 > 0x19) && (lsd_hex2 < 0x7F) && (lsd2_okay == 1) )
state->dmr_alias_block_segment[0][0][k/4][k%4] = (char)lsd_hex2;
// else state->dmr_alias_block_segment[0][0][k/4][k%4] = 0x20;
k++;
state->data_block_counter[0] = k;
}
//reset format, len, counter.
if (lsd_hex1 == 0x02 && lsd1_okay == 1 && lsd2_okay == 1)
{
state->dmr_alias_format[0] = 0x02;
if (lsd_hex2 > 8) lsd_hex2 = 8; //sanity check
state->dmr_alias_len[0] = lsd_hex2;
state->data_block_counter[0] = 0;
}
if ( (k >= state->dmr_alias_len[0]) && (state->dmr_alias_format[0] == 0x02) )
{
//print out what we've gathered
fprintf (stderr, "%s",KCYN);
fprintf (stderr, " LSD Soft ID: ");
for (i = 0; i < 4; i++)
{
for (int j = 0; j < 4; j++)
{
fprintf (stderr, "%c", state->dmr_alias_block_segment[0][0][i][j]);
}
}
fprintf (stderr, "%s",KNRM);
fprintf (stderr, "\n");
//reset values
state->dmr_alias_format[0] = 0;
state->data_block_counter[0] = 0;
state->dmr_alias_len[0] = 0;
// memset (state->dmr_alias_block_segment, 0, sizeof(state->dmr_alias_block_segment));
}
}
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