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M7350/qcom-opensource/mm-audio/audio-native/qdsp5/qcptest.c
T f9cc65cfda M7350v1_en_gpl
2024-09-09 08:52:07 +00:00

1575 lines
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/* qcptest.c - native QCELP/EVRC test application
*
* Based on native pcm test application platform/system/extras/sound/playwav.c
*
* Copyright (C) 2008 The Android Open Source Project
* Copyright (c) 2009-2010, 2012 The Linux Foundation. All rights reserved.
*
* Licensed under the Apache License, Version 2.0 (the "License");
* you may not use this file except in compliance with the License.
* You may obtain a copy of the License at
*
* http://www.apache.org/licenses/LICENSE-2.0
*
* Unless required by applicable law or agreed to in writing, software
* distributed under the License is distributed on an "AS IS" BASIS,
* WITHOUT WARRANTIES OR CONDITIONS OF ANY KIND, either express or implied.
* See the License for the specific language governing permissions and
* limitations under the License.
*/
#include <stdio.h>
#include <stdlib.h>
#include <fcntl.h>
#include <stdint.h>
#include <sys/mman.h>
#include <sys/stat.h>
#include <unistd.h>
#include <string.h>
#include <sys/ioctl.h>
#include <linux/msm_audio.h>
#include <pthread.h>
#include <errno.h>
#include "audiotest_def.h"
#define QCELP_DEVICE_NODE "/dev/msm_qcelp"
#define EVRC_DEVICE_NODE "/dev/msm_evrc"
#define QCELP_PKT_SIZE 36
#define EVRC_PKT_SIZE 24
#define EOS 0x00000001
static int in_size =0;
static int out_size =0;
static int file_write=0;
static int eos_ack=0;
struct riff_chunk {
char riff[4];
unsigned int s_riff;
char qlcm[4];
} __attribute__ ((packed));
struct q_info {
/* UNIQUE ID of the codec */
unsigned int data1;
unsigned short data2;
unsigned short data3;
char data4[8];
/* Codec Info */
unsigned short ver;
char name[80];
unsigned short abps; /* average bits per sec of the codec */
unsigned short bytes_per_pkt;
unsigned short samp_per_block;
unsigned short samp_per_sec;
unsigned short bits_per_samp;
/* Rate Header fmt info */
unsigned char vr_num_of_rates;
unsigned char rvd1[3];
unsigned short vr_bytes_per_pkt[8];
unsigned int rvd2[5];
} __attribute__ ((packed));
struct fmt_chunk {
char fmt[4];
unsigned int s_fmt;
char mjr;
char mnr;
struct q_info info;
} __attribute__ ((packed));
struct qcp_header {
struct riff_chunk riff;
struct fmt_chunk fmt;
} __attribute__ ((packed));
struct vrat_chunk {
unsigned char vrat[4];
unsigned int s_vrat;
unsigned int v_rate;
unsigned int size_in_pkts;
} __attribute__ ((packed));
struct data_chunk {
unsigned char data[4];
unsigned int s_data;
} __attribute__ ((packed));
struct type_size {
unsigned char size;
unsigned char rate;
};
/* http://ccrma.stanford.edu/courses/422/projects/WaveFormat/ */
struct wav_header { /* Simple wave header */
char Chunk_ID[4]; /* Store "RIFF" */
unsigned int Chunk_size;
char Riff_type[4]; /* Store "WAVE" */
char Chunk_ID1[4]; /* Store "fmt " */
unsigned int Chunk_fmt_size;
unsigned short Compression_code; /*1 - 65,535, 1 - pcm */
unsigned short Number_Channels; /* 1 - 65,535 */
unsigned int Sample_rate; /* 1 - 0xFFFFFFFF */
unsigned int Bytes_Sec; /*1 - 0xFFFFFFFF */
unsigned short Block_align; /* 1 - 65,535 */
unsigned short Significant_Bits_sample; /* 1 - 65,535 */
char Chunk_ID2[4]; /* Store "data" */
unsigned int Chunk_data_size;
} __attribute__ ((packed));
static struct wav_header append_header = {
{'R', 'I', 'F', 'F'}, 0, {'W', 'A', 'V', 'E'},
{'f', 'm', 't', ' '}, 16, 1, 1, 8000, 16000, 2,
16, {'d', 'a', 't', 'a'}, 0
};
static pthread_mutex_t avail_lock;
static pthread_cond_t avail_cond;
static pthread_mutex_t consumed_lock;
static pthread_cond_t consumed_cond;
static int data_is_available = 0;
static int data_is_consumed = 0;
static int in_free_indx;
static int in_data_indx;
static int out_free_indx;
static int out_data_indx;
struct meta_in{
unsigned short offset;
long long timestamp;
unsigned int nflags;
} __attribute__ ((packed));
struct meta_out{
unsigned short offset;
long long timestamp;
unsigned int nflags;
unsigned short errflag;
unsigned short sample_frequency;
unsigned short channel;
unsigned int tick_count;
} __attribute__ ((packed));
typedef struct TIMESTAMP{
unsigned long LowPart;
unsigned long HighPart;
} __attribute__ ((packed)) TIMESTAMP;
struct meta_in_q6{
unsigned char rsv[18];
unsigned short offset;
TIMESTAMP ntimestamp;
unsigned int nflags;
} __attribute__ ((packed));
struct meta_out_dsp{
unsigned int offset_to_frame;
unsigned int frame_size;
unsigned int encoded_pcm_samples;
unsigned int msw_ts;
unsigned int lsw_ts;
unsigned int nflags;
} __attribute__ ((packed));
struct dec_meta_out{
unsigned int rsv[7];
unsigned int num_of_frames;
struct meta_out_dsp meta_out_dsp[];
} __attribute__ ((packed));
#define QCPTEST_IBUFSZ (32*1024)
#define QCPTEST_NUM_IBUF 2
#define QCPTEST_IPMEM_SZ (QCPTEST_IBUFSZ * QCPTEST_NUM_IBUF)
#define QCPTEST_OBUFSZ (32*1024)
#define QCPTEST_NUM_OBUF 2
#define QCPTEST_OPMEM_SZ (QCPTEST_OBUFSZ * QCPTEST_NUM_OBUF)
#ifdef _ANDROID_
static const char *cmdfile = "/data/audio_test";
/* static const char *outfile = "/data/pcm.wav"; */
#else
static const char *cmdfile = "/tmp/audio_test";
/* static const char *outfile = "/tmp/pcm.wav"; */
#endif
struct msm_audio_aio_buf aio_ip_buf[QCPTEST_NUM_IBUF];
struct msm_audio_aio_buf aio_op_buf[QCPTEST_NUM_OBUF];
static void wait_for_data(void)
{
pthread_mutex_lock(&avail_lock);
while (data_is_available == 0) {
pthread_cond_wait(&avail_cond, &avail_lock);
}
data_is_available = 0;
pthread_mutex_unlock(&avail_lock);
}
static void data_available(void)
{
pthread_mutex_lock(&avail_lock);
if (data_is_available == 0) {
data_is_available = 1;
pthread_cond_broadcast(&avail_cond);
}
pthread_mutex_unlock(&avail_lock);
}
static void wait_for_data_consumed(void)
{
pthread_mutex_lock(&consumed_lock);
while (data_is_consumed == 0) {
pthread_cond_wait(&consumed_cond, &consumed_lock);
}
data_is_consumed = 0;
pthread_mutex_unlock(&consumed_lock);
}
static void data_consumed(void )
{
pthread_mutex_lock(&consumed_lock);
if (data_is_consumed == 0) {
data_is_consumed = 1;
pthread_cond_broadcast(&consumed_cond);
}
pthread_mutex_unlock(&consumed_lock);
}
static void create_wav_header(int Datasize)
{
append_header.Chunk_size = Datasize + 8 + 16 + 12;
append_header.Chunk_data_size = Datasize;
return;
}
static void *qcp_dec(void *arg)
{
int fd, ret_val = 0;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) arg;
int afd = audio_data->afd;
int len, total_len;
struct meta_out meta;
len = 0;
total_len = 0;
fd = open(audio_data->outfile, O_RDWR | O_CREAT,
S_IRWXU | S_IRWXG | S_IRWXO);
if (fd < 0) {
printf("Err while opening file decoder output file \n");
pthread_exit((void *)ret_val);
}
printf(" qcp_read Thread \n");
lseek(fd, 44, SEEK_SET); /* Set Space for Wave Header */
do {
if (audio_data->suspend == 1) {
printf("enter suspend mode\n");
ioctl(afd, AUDIO_STOP, 0);
while (audio_data->suspend == 1)
sleep(1);
ioctl(afd, AUDIO_START, 0);
printf("exit suspend mode\n");
}
len = read(afd, audio_data->recbuf, audio_data->recsize);
#ifdef DEBUG_LOCAL
printf(" Read = %d PCM samples\n", len/2);
#endif
if (len < 0) {
if (audio_data->flush_enable == 1) {
printf(" Flush in progress, sleep 5 ms \n");
usleep(5000);
printf(" total len 0x%8x \n", total_len);
continue;
} else {
printf(" error reading the PCM samples \n");
goto fail;
}
} else if (len != 0) {
memcpy(&meta, audio_data->recbuf, sizeof(struct meta_out));
#ifdef DEBUG_LOCAL
printf("\t\tMeta Out Timestamp: %lld\n",
meta.timestamp);
#endif
if (meta.nflags == 1) {
printf("Reached end of file\n");
break;
}
len = (len - sizeof(struct meta_out));
if (len > 0) {
if (write(fd, (audio_data->recbuf +
sizeof(struct meta_out)), len) != len) {
printf(" error writing the PCM \
samples to file \n");
goto fail;
}
}
} else if (len == 0)
printf("Unexpected case: read count zero\n");
total_len += len;
} while (1);
create_wav_header(total_len);
lseek(fd, 0, SEEK_SET);
write(fd, (char *)&append_header, 44);
close(fd);
pthread_exit((void *)ret_val);
fail:
close(fd);
pthread_exit((void *)ret_val);
return NULL;
}
static void *event_notify(void *arg)
{
long ret_drv;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) arg;
int afd = audio_data->afd;
struct msm_audio_event suspend_event;
do {
printf("event_notify thread started\n");
suspend_event.timeout_ms = 0;
ret_drv = ioctl(afd, AUDIO_GET_EVENT, &suspend_event);
if (ret_drv < 0) {
printf("event_notify thread exiting: \
Got Abort event or timedout\n");
break;
} else {
if (suspend_event.event_type == AUDIO_EVENT_SUSPEND) {
printf("event_notify: RECEIVED EVENT FROM \
DRIVER OF TYPE: AUDIO_EVENT_SUSPEND: \
%d\n", suspend_event.event_type);
audio_data->suspend = 1;
sleep(1);
} else if
(suspend_event.event_type == AUDIO_EVENT_RESUME) {
printf("event_notify: RECEIVED EVENT FROM \
DRIVER OF TYPE: AUDIO_EVENT_RESUME : \
%d\n", suspend_event.event_type);
audio_data->suspend = 0;
}
}
} while (1);
return NULL;
}
/* Get File content and create meta */
static int fill_buffer_8660(void *buf, unsigned sz, void *cookie)
{
struct meta_in_q6 meta;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) cookie;
unsigned cpy_size = (sz < audio_data->avail?sz:audio_data->avail);
#ifdef DEBUG_LOCAL
char *temp;
printf("%s:frame count %d\n", __func__, audio_data->frame_count);
#endif
if (audio_data->mode) {
meta.ntimestamp.HighPart = 0;
meta.ntimestamp.LowPart = (unsigned long long)(audio_data->frame_count * 0x10000);
meta.offset = sizeof(struct meta_in_q6);
audio_data->frame_count++;
#ifdef DEBUG_LOCAL
printf("Meta In High part is %lu\n",
meta.ntimestamp.HighPart);
printf("Meta In Low part is %lu\n",
meta.ntimestamp.LowPart);
printf("Meta In ntimestamp: %llu\n", (((unsigned long long)
meta.ntimestamp.HighPart << 32) +
meta.ntimestamp.LowPart));
printf("meta in size %d\n", sizeof(struct meta_in_q6));
#endif
if (audio_data->avail == 0) {
/* End of file, send EOS */
meta.nflags = EOS;
memcpy(buf, &meta, sizeof(struct meta_in_q6));
return (sizeof(struct meta_in_q6));
}
meta.nflags = 0;
memcpy(buf, &meta, sizeof(struct meta_in_q6));
memcpy(((char *)buf + sizeof(struct meta_in_q6)), audio_data->next, cpy_size);
#ifdef DEBUG_LOCAL
temp = ((char*)buf + sizeof(struct meta_in_q6));
printf("\nFirst three bytes 0x%2x:0x%2x:0x%2x\n", *temp, *(temp+1), *(temp+2));
#endif
} else {
if (audio_data->avail == 0) {
return 0;
}
audio_data->frame_count++;
memcpy((char *)buf, audio_data->next, cpy_size);
#ifdef DEBUG_LOCAL
temp = (buf);
printf("\nFirst three bytes 0x%2x:0x%2x:0x%2x\n", *temp, *(temp+1), *(temp+2));
#endif
}
audio_data->next += cpy_size;
audio_data->avail -= cpy_size;
if (audio_data->mode)
return cpy_size + sizeof(struct meta_in_q6);
else
return cpy_size;
}
static void *qcp_read_thread_8660(void *arg)
{
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) arg;
int afd = audio_data->afd;
int total_len;
int fd = 0;
struct dec_meta_out *meta_out_ptr;
struct meta_out_dsp *meta_out_dsp;
struct msm_audio_aio_buf aio_buf;
struct msm_audio_config config;
#ifdef AUDIOV2
unsigned short dec_id;
#endif
unsigned int first_frame_offset, idx;
unsigned int total_frame_size;
total_len = 0;
if(file_write) {
// Log PCM samples to a file
fd = open(audio_data->outfile, O_RDWR | O_CREAT,
S_IRWXU | S_IRWXG | S_IRWXO);
if (fd < 0) {
perror("Cannot open audio sink device");
return ((void*)-1);
}
lseek(fd, 44, SEEK_SET); /* Set Space for Wave Header */
} else {
// Log PCM samples to pcm out driver
fd = open(audio_data->outfile, O_WRONLY);
if (fd < 0) {
perror("Cannot open audio sink device");
return ((void*)-1);
}
#ifdef AUDIOV2
if (ioctl(fd, AUDIO_GET_SESSION_ID, &dec_id)) {
perror("could not get pcm decoder session id\n");
goto err_state;
}
printf("pcm decoder session id %d\n", dec_id);
#if defined(TARGET_USES_QCOM_MM_AUDIO)
if (devmgr_register_session(dec_id, DIR_RX) < 0) {
perror("could not route pcm decoder stream\n");
goto err_state;
}
#endif
#endif
if (ioctl(fd, AUDIO_GET_CONFIG, &config)) {
perror("could not get pcm config");
goto err_state;
}
config.channel_count = audio_data->channels;
config.sample_rate = audio_data->freq;
if (ioctl(fd, AUDIO_SET_CONFIG, &config)) {
perror("could not set pcm config");
goto err_state;
}
if (ioctl(fd, AUDIO_START, 0) < 0) {
perror("could not start pcm playback node");
goto err_state;
}
}
while(1) {
// Send free Read buffer
aio_buf.buf_addr = aio_op_buf[out_free_indx].buf_addr;
aio_buf.buf_len = aio_op_buf[out_free_indx].buf_len;
aio_buf.data_len = 0; // Driver will notify actual size
aio_buf.private_data = aio_op_buf[out_free_indx].private_data;
wait_for_data();
#ifdef DEBUG_LOCAL
printf("%s:free_idx %d, data_idx %d\n", __func__, out_free_indx, out_data_indx);
#endif
out_free_indx = out_data_indx;
printf("%s:ASYNC_READ addr %p len %d\n", __func__, aio_buf.buf_addr, aio_buf.buf_len);
if (ioctl(afd, AUDIO_ASYNC_READ, &aio_buf) < 0) {
printf("error on async read\n");
break;
}
meta_out_ptr = (struct dec_meta_out *)aio_op_buf[out_free_indx].buf_addr;
meta_out_dsp = (struct meta_out_dsp *)(((char *)meta_out_ptr + sizeof(struct dec_meta_out)));
printf("nr of frames %d\n", meta_out_ptr->num_of_frames);
#ifdef DEBUG_LOCAL
printf("%s:msw ts 0x%8x, lsw_ts 0x%8x, nflags 0x%8x\n", __func__,
meta_out_dsp->msw_ts,
meta_out_dsp->lsw_ts,
meta_out_dsp->nflags);
#endif
first_frame_offset = meta_out_dsp->offset_to_frame + sizeof(struct dec_meta_out);
total_frame_size = 0;
if(meta_out_ptr->num_of_frames != 0xFFFFFFFF) {
// Go over all meta data field to find exact frame size
for(idx=0; idx < meta_out_ptr->num_of_frames; idx++) {
total_frame_size += meta_out_dsp->frame_size;
meta_out_dsp++;
}
printf("total size %d\n", total_frame_size);
} else {
//OutPut EOS reached
if (meta_out_dsp->nflags == EOS) {
printf("%s:Received EOS at output port 0x%8x\n", __func__,
meta_out_dsp->nflags);
break;
}
}
printf("%s: Read Size %d offset %d\n", __func__,
total_frame_size, first_frame_offset);
write(fd, ((char *)aio_op_buf[out_free_indx].buf_addr + first_frame_offset),
total_frame_size);
total_len += total_frame_size;
}
if(file_write) {
append_header.Sample_rate = audio_data->freq;
append_header.Number_Channels = audio_data->channels;
append_header.Bytes_Sec = append_header.Sample_rate *
append_header.Number_Channels * 2;
append_header.Block_align = append_header.Number_Channels * 2;
create_wav_header(total_len);
lseek(fd, 0, SEEK_SET);
write(fd, (char *)&append_header, 44);
} else {
sleep(1); // All buffers drained
#if defined(TARGET_USES_QCOM_MM_AUDIO) && defined(AUDIOV2)
if (devmgr_unregister_session(dec_id, DIR_RX) < 0) {
perror("could not deroute pcm decoder stream\n");
}
#endif
}
err_state:
close(fd);
printf("%s:exit\n", __func__);
pthread_exit(NULL);
return NULL;
}
static void *qcp_write_thread_8660(void *arg)
{
struct msm_audio_aio_buf aio_buf;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) arg;
int afd = audio_data->afd, sz;
struct meta_in_q6 *meta_in_ptr;
int eos=0;
while(1) {
if(!eos) {
// Copy write buffer
aio_buf.buf_addr = aio_ip_buf[in_free_indx].buf_addr;
aio_buf.buf_len = aio_ip_buf[in_free_indx].buf_len;
aio_buf.private_data = aio_ip_buf[in_free_indx].private_data;
sz = fill_buffer_8660(aio_buf.buf_addr, in_size, audio_data);
if (sz == sizeof(struct meta_in_q6)) { //NT mode EOS
printf("%s:Done reading file\n", __func__);
printf("%s:Send EOS on I/N Put\n", __func__);
aio_buf.data_len = sz;
aio_ip_buf[in_free_indx].data_len = sz;
eos = 1;
} else if (sz == 0){ // Tunnel mode EOS
eos = 1;
break;
} else {
aio_buf.data_len = sz;
aio_ip_buf[in_free_indx].data_len = sz;
}
printf("%s:ASYNC_WRITE addr %p len %d\n", __func__, aio_buf.buf_addr,aio_buf.data_len);
ioctl(afd, AUDIO_ASYNC_WRITE, &aio_buf);
}
wait_for_data_consumed();
#ifdef DEBUG_LOCAL
printf("%s:free_idx %d, data_idx %d\n", __func__, in_free_indx, in_data_indx);
#endif
in_free_indx = in_data_indx;
meta_in_ptr = (struct meta_in_q6 *)aio_ip_buf[in_data_indx].buf_addr;
//Input EOS reached
if (meta_in_ptr->nflags == EOS) {
printf("%s:Received EOS buffer back at i/p 0x%8x\n", __func__, meta_in_ptr->nflags);
break;
}
}
if(!audio_data->mode && eos) {
printf("%s:Wait for data to drain out\n", __func__);
fsync(afd);
eos_ack = 1;
sleep(1);
ioctl(afd, AUDIO_ABORT_GET_EVENT, 0);
}
printf("%s:exit\n", __func__);
// Free memory created during file setup
free(audio_data->org_next);
pthread_exit(NULL);
return NULL;
}
static void *qcp_dec_event_8660(void *arg)
{
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) arg;
int afd = audio_data->afd, rc;
struct msm_audio_event event;
int eof = 0;
struct dec_meta_out *meta_out_ptr;
struct meta_out_dsp *meta_out_dsp;
struct meta_in_q6 *meta_in_ptr;
pthread_t evt_read_thread;
pthread_t evt_write_thread;
eos_ack = 0;
if (audio_data->mode) // Non Tunnel mode
pthread_create(&evt_read_thread, NULL, qcp_read_thread_8660, (void *) audio_data);
pthread_create(&evt_write_thread, NULL, qcp_write_thread_8660, (void *) audio_data);
// Till EOF not reached in NT or till eos not reached in tunnel
while((!eof && audio_data->mode) || (!eos_ack && !audio_data->mode)) {
// Wait till timeout
event.timeout_ms = 0;
rc = ioctl(afd, AUDIO_GET_EVENT, &event);
if (rc < 0) {
printf("%s: errno #%d", __func__, errno);
continue;
}
#ifdef DEBUG_LOCAL
printf("%s:AUDIO_GET_EVENT event %d \n", __func__, event.event_type);
#endif
switch(event.event_type) {
case AUDIO_EVENT_READ_DONE:
if(event.event_payload.aio_buf.buf_len == 0)
printf("Warning buf_len Zero\n");
if (event.event_payload.aio_buf.data_len >= sizeof(struct dec_meta_out)) {
printf("%s: READ_DONE: addr %p len %d\n", __func__,
event.event_payload.aio_buf.buf_addr,
event.event_payload.aio_buf.data_len);
meta_out_ptr = (struct dec_meta_out *)event.event_payload.aio_buf.buf_addr;
out_data_indx =(int) event.event_payload.aio_buf.private_data;
meta_out_dsp = (struct meta_out_dsp *)(((char *)meta_out_ptr + sizeof(struct dec_meta_out)));
//OutPut EOS reached
if (meta_out_dsp->nflags == EOS) {
eof = 1;
printf("%s:Received EOS event at output 0x%8x\n", __func__,
meta_out_dsp->nflags);
}
data_available();
} else {
printf("%s:AUDIO_EVENT_READ_DONE:unexpected length\n", __func__);
}
break;
case AUDIO_EVENT_WRITE_DONE:
if (event.event_payload.aio_buf.data_len >= sizeof(struct meta_in_q6)) {
printf("%s:WRITE_DONE: addr %p len %d\n", __func__,
event.event_payload.aio_buf.buf_addr,
event.event_payload.aio_buf.data_len);
meta_in_ptr = (struct meta_in_q6 *)event.event_payload.aio_buf.buf_addr;
in_data_indx =(int) event.event_payload.aio_buf.private_data;
//Input EOS reached
if (meta_in_ptr->nflags == EOS) {
printf("%s:Received EOS at input 0x%8x\n", __func__, meta_in_ptr->nflags);
}
data_consumed();
} else {
printf("%s:AUDIO_EVENT_WRITE_DONE:unexpected length\n", __func__);
}
break;
default:
printf("%s: -Unknown event- %d\n", __func__, event.event_type);
break;
}
}
if(audio_data->mode)
pthread_join(evt_read_thread, NULL);
else
pthread_join(evt_write_thread, NULL);
printf("%s:exit\n", __func__);
pthread_exit(NULL);
return NULL;
}
/* Expect on raw file, which is only wma data file */
static void *setup_qcp_file(struct audtest_config *clnt_config)
{
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) clnt_config->private_data;
struct stat stat_buf;
char *content_buf;
int fd, afd;
size_t buffer_size;
struct qcp_header *qcpheader = NULL;
printf("setup qcp file\n");
fd = open(clnt_config->file_name, O_RDONLY);
if (fd < 0) {
printf("Err while opening qcp file %s\n", clnt_config->file_name);
return((void *)-1);
}
(void) fstat(fd, &stat_buf);
buffer_size = stat_buf.st_size;
/* memory set for file */
audio_data->next = (char*)malloc(buffer_size);
printf("Total file len: %d, buffer start addr=%p\n", buffer_size, audio_data->next);
if (!audio_data->next) {
fprintf(stderr,"could not allocate %d bytes\n", buffer_size);
close(fd);
return ((void*)-1);
}
audio_data->org_next = audio_data->next;
content_buf = audio_data->org_next;
if ((read(fd, audio_data->next, buffer_size)) != (ssize_t)buffer_size) {
fprintf(stderr,"could not read %d bytes\n", buffer_size);
goto fail;
}
qcpheader = (struct qcp_header *)audio_data->next;
if (!strcmp(qcpheader->fmt.info.name, "Qcelp 13K")) { /* Qcelp 13K */
printf("qcelp open\n");
if (audio_data->mode)
afd = open(QCELP_DEVICE_NODE, O_RDWR|O_NONBLOCK);
else
afd = open(QCELP_DEVICE_NODE, O_WRONLY|O_NONBLOCK);
} else {
printf("evrc open\n");
if (audio_data->mode)
afd = open(EVRC_DEVICE_NODE, O_RDWR|O_NONBLOCK);
else
afd = open(EVRC_DEVICE_NODE, O_WRONLY|O_NONBLOCK);
}
if (afd < 0) {
printf("Unable to open driver\n");
goto fail;
}
audio_data->afd = afd;
/* Skip header part, send bitstrema */
audio_data->next = audio_data->next + (sizeof(struct qcp_header) +
sizeof(struct vrat_chunk) + sizeof(struct data_chunk));
audio_data->avail = buffer_size - (sizeof(struct qcp_header) +
sizeof(struct vrat_chunk) + sizeof(struct data_chunk));
audio_data->org_avail = audio_data->avail;
printf("Total available len: %d, buffer start addr=%p\n", audio_data->avail, audio_data->next);
return 0;
fail:
close(fd);
free(content_buf);
return ((void*)-1);
}
static int qcp_start_8660(struct audtest_config *clnt_config)
{
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) clnt_config->private_data;
unsigned n = 0;
pthread_t evt_thread;
int sz;
int rc = -1;
#ifdef AUDIOV2
int dec_id;
#endif
int afd, ipmem_fd[QCPTEST_NUM_IBUF], opmem_fd[QCPTEST_NUM_OBUF];
void *ipmem_ptr[QCPTEST_NUM_IBUF], *opmem_ptr[QCPTEST_NUM_OBUF];
struct msm_audio_pmem_info pmem_info;
struct msm_audio_aio_buf aio_buf;
struct msm_audio_buf_cfg buf_cfg;
struct msm_audio_config config;
// Voice decoder operates in 8k, mono
audio_data->freq = 8000;
audio_data->channels = 1;
audio_data->bitspersample = 16;
memset(ipmem_fd, 0, (sizeof(int) * QCPTEST_NUM_IBUF));
memset(opmem_fd, 0, (sizeof(int) * QCPTEST_NUM_OBUF));
memset(ipmem_ptr, 0, (sizeof(void *) * QCPTEST_NUM_IBUF));
memset(opmem_ptr, 0, (sizeof(void *) * QCPTEST_NUM_OBUF));
if(((in_size + sizeof(struct meta_in_q6)) > QCPTEST_IBUFSZ) ||
(out_size > QCPTEST_OBUFSZ)) {
perror("configured input / output size more"\
"than pmem allocation");
return -1;
}
if(setup_qcp_file(clnt_config) < (void *)0)
return -1;
afd = audio_data->afd;
if (audio_data->mode) {
/* PCM config */
if (ioctl(afd, AUDIO_GET_CONFIG, &config)) {
perror("could not get config");
goto err_state1;
}
config.sample_rate = audio_data->freq;
config.channel_count = audio_data->channels;
config.bits = audio_data->bitspersample;
if (ioctl(afd, AUDIO_SET_CONFIG, &config)) {
perror("could not set config");
goto err_state1;
}
printf("pcm config sample_rate=%d channels=%d bitspersample=%d \n",
config.sample_rate, config.channel_count, config.bits);
} else {
#ifdef AUDIOV2
if (ioctl(afd, AUDIO_GET_SESSION_ID, &dec_id)) {
perror("could not get decoder session id\n");
goto err_state1;
}
#if defined(TARGET_USES_QCOM_MM_AUDIO)
if (devmgr_register_session(dec_id, DIR_RX) < 0) {
goto err_state1;
}
#endif
#endif
}
audio_data->frame_count = 0;
if(ioctl(afd, AUDIO_GET_BUF_CFG, &buf_cfg)) {
printf("Error getting AUDIO_GET_BUF_CONFIG\n");
goto err_state2;
}
printf("Default meta_info_enable = 0x%8x\n", buf_cfg.meta_info_enable);
printf("Default frames_per_buf = 0x%8x\n", buf_cfg.frames_per_buf);
if (audio_data->mode) {
// NT mode support meta info
buf_cfg.meta_info_enable = 1;
if(ioctl(afd, AUDIO_SET_BUF_CFG, &buf_cfg)) {
printf("Error setting AUDIO_SET_BUF_CONFIG\n");
goto err_state2;
}
}
pthread_cond_init(&avail_cond, 0);
pthread_mutex_init(&avail_lock, 0);
pthread_cond_init(&consumed_cond, 0);
pthread_mutex_init(&consumed_lock, 0);
data_is_available = 0;
data_is_consumed = 0;
in_free_indx=0;
out_free_indx=0;
if ((ioctl(afd, AUDIO_START, 0))< 0 ) {
printf("qcptest: unable to start driver\n");
goto err_state2;
}
if (audio_data->mode) {
/* non - tunnel portion */
printf("selected non-tunnel part\n");
// Register read buffers
for (n = 0; n < QCPTEST_NUM_OBUF; n++) {
opmem_fd[n] = open("/dev/pmem_audio", O_RDWR);
printf("%s: opmem_fd %x\n", __func__, opmem_fd[n]);
opmem_ptr[n] = mmap(0, QCPTEST_OBUFSZ,
PROT_READ | PROT_WRITE, MAP_SHARED, opmem_fd[n], 0);
printf("%s:opmem_ptr[%d] %x\n", __func__, n, (unsigned int) opmem_ptr[n]);
pmem_info.fd = opmem_fd[n];
pmem_info.vaddr = opmem_ptr[n];
rc = ioctl(afd, AUDIO_REGISTER_PMEM, &pmem_info);
if(rc < 0) {
printf( "error on register opmem=%d\n",rc);
goto err_state2;
}
// Read buffers local structure
aio_op_buf[n].buf_addr = opmem_ptr[n];
aio_op_buf[n].buf_len = out_size + sizeof(struct dec_meta_out);
aio_op_buf[n].data_len = 0; // Driver will notify actual size
aio_op_buf[n].private_data = (void *)n; //Index
}
// Send n-1 Read buffer
for (n = 0; n < (QCPTEST_NUM_OBUF-1); n++) {
aio_buf.buf_addr = aio_op_buf[n].buf_addr;
aio_buf.buf_len = aio_op_buf[n].buf_len;
aio_buf.data_len = aio_op_buf[n].data_len;
aio_buf.private_data = aio_op_buf[n].private_data;
printf("ASYNC_READ addr %p len %d\n", aio_buf.buf_addr,
aio_buf.buf_len);
if (ioctl(afd, AUDIO_ASYNC_READ, &aio_buf) < 0) {
printf("error on async read\n");
goto err_state2;
}
}
//Indicate available free buffer as (n-1)
out_free_indx = QCPTEST_NUM_OBUF-1;
}
//Register Write buffer
for (n = 0; n < QCPTEST_NUM_IBUF; n++) {
ipmem_fd[n] = open("/dev/pmem_audio", O_RDWR);
printf("%s: ipmem_fd %x\n", __func__, ipmem_fd[n]);
ipmem_ptr[n] = mmap(0, QCPTEST_IBUFSZ,
PROT_READ | PROT_WRITE, MAP_SHARED, ipmem_fd[n], 0);
printf("%s:ipmem_ptr[%d] %x\n", __func__, n, (unsigned int )ipmem_ptr[n]);
pmem_info.fd = ipmem_fd[n];
pmem_info.vaddr = ipmem_ptr[n];
rc = ioctl(afd, AUDIO_REGISTER_PMEM, &pmem_info);
if(rc < 0) {
printf( "error on register ipmem=%d\n",rc);
goto err_state2;
}
// Write buffers local structure
aio_ip_buf[n].buf_addr = ipmem_ptr[n];
aio_ip_buf[n].buf_len = QCPTEST_IBUFSZ;
aio_ip_buf[n].data_len = 0; // Driver will notify actual size
aio_ip_buf[n].private_data = (void *)n; //Index
}
// Send n-1 write buffer
for (n = 0; n < (QCPTEST_NUM_IBUF-1); n++) {
aio_buf.buf_addr = aio_ip_buf[n].buf_addr;
aio_buf.buf_len = aio_ip_buf[n].buf_len;
if ((sz = fill_buffer_8660(aio_buf.buf_addr, in_size, audio_data)) < 0)
goto err_state2;
aio_buf.data_len = sz;
aio_ip_buf[n].data_len = sz;
aio_buf.private_data = aio_ip_buf[n].private_data;
printf("ASYNC_WRITE addr %p len %d\n", aio_buf.buf_addr,
aio_buf.data_len);
rc = ioctl(afd, AUDIO_ASYNC_WRITE, &aio_buf);
if(rc < 0) {
printf( "error on async write=%d\n",rc);
goto err_state2;
}
}
//Indicate available free buffer as (n-1)
in_free_indx = QCPTEST_NUM_IBUF-1;
pthread_create(&evt_thread, NULL, qcp_dec_event_8660, (void *) audio_data);
pthread_join(evt_thread, NULL);
printf("AUDIO_STOP as event thread completed\n");
done:
rc = 0;
ioctl(afd, AUDIO_STOP, 0);
err_state2:
if (audio_data->mode) {
for (n = 0; n < QCPTEST_NUM_OBUF; n++) {
munmap(opmem_ptr[n], QCPTEST_OBUFSZ);
close(opmem_fd[n]);
}
}
for (n = 0; n < QCPTEST_NUM_IBUF; n++) {
munmap(ipmem_ptr[n], QCPTEST_IBUFSZ);
close(ipmem_fd[n]);
}
if (!audio_data->mode) {
#if defined(TARGET_USES_QCOM_MM_AUDIO) && defined(AUDIOV2)
if (devmgr_unregister_session(dec_id, DIR_RX) < 0)
printf("error closing stream\n");
#endif
}
err_state1:
close(afd);
return rc;
}
static int qcp_start(struct audtest_config *clnt_config)
{
int fd, afd, ret;
int jj, count, pkts_per_buffer, pkts_size, rate;
unsigned ii;
int inc = 0;
pthread_t thread, event_th;
struct type_size ts[8];
struct qcp_header *qcpheader = NULL;
struct vrat_chunk vrat;
struct data_chunk data;
struct msm_audio_config config;
struct meta_in meta;
int qcelp_evrc_opflg = 0;
char *transcodebuf = NULL;
unsigned int size = 0;
int ret_val = 0;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) clnt_config->private_data;
#ifdef AUDIOV2
unsigned short dec_id;
#endif
/* Open the file for operation */
fd = open(clnt_config->file_name, O_RDWR);
if (fd < 0) {
printf("unable to open qcp file =%s\n",
clnt_config->file_name);
return -1;
}
qcpheader = (struct qcp_header *)malloc(sizeof(struct qcp_header));
#ifdef DEBUG_LOCAL
printf("=====================================================\n");
for (ii = 0; ii < 294; ii++) {
char ch;
read(fd, &ch, 1);
printf("%hhx ", ch);
}
printf("=====================================================\n");
#endif
/* QCP File Parsing section ---- START */
lseek(fd, 0, SEEK_SET);
printf("\n");
/* Read main QCP Header */
ret = read(fd, qcpheader, sizeof(struct qcp_header));
if (ret < 0) {
ret_val = -1;
goto file_err;
} else
audio_data->start_ptr += ret;
printf("size of riff chunk = %d and size of a file = %d\n",
qcpheader->riff.s_riff, qcpheader->riff.s_riff + 8);
printf("size of fmt_chunk : %d\n", qcpheader->fmt.s_fmt);
printf("major:minor = %d:%d\n", qcpheader->fmt.mjr, qcpheader->fmt.mnr);
printf("Name of the codec = %s\n", qcpheader->fmt.info.name);
printf("Average bps of the codec = %hd\n", qcpheader->fmt.info.abps);
printf("Bytes per packet = %hd\n", qcpheader->fmt.info.bytes_per_pkt);
printf("Samples per block = %hd\n", qcpheader->fmt.info.samp_per_block);
printf("Samples per sec = %hd\n", qcpheader->fmt.info.samp_per_sec);
printf("Bits per sample = %hd\n", qcpheader->fmt.info.bits_per_samp);
printf("No of possible rates = %d\n",
qcpheader->fmt.info.vr_num_of_rates);
for (ii = 0; ii < qcpheader->fmt.info.vr_num_of_rates; ii++) {
char *ptr;
ptr = (char *)&(qcpheader->fmt.info.vr_bytes_per_pkt[ii]);
printf("size = %hhd rate = %hhd\n", ptr[0], ptr[1]);
ts[ii].size = ptr[0];
ts[ii].rate = ptr[1];
}
/* Read VRAT Chunk */
if (qcpheader->fmt.info.vr_num_of_rates) {
ret = read(fd, &vrat, sizeof(vrat));
if (ret < 0) {
ret_val = -1;
goto file_err;
} else
audio_data->start_ptr += ret;
printf("%c %c %c %c \n", vrat.vrat[0], vrat.vrat[1],
vrat.vrat[2], vrat.vrat[3]);
printf("size of the vrat_chunk = %hhd\n", vrat.s_vrat);
printf("variable rate = %d\n", vrat.v_rate);
printf("data chubk size in packets = %d\n", vrat.size_in_pkts);
}
/* QCP File parsing section - END */
if (!strcmp(qcpheader->fmt.info.name, "Qcelp 13K")) { /* Qcelp 13K */
if (audio_data->mode)
afd = open(QCELP_DEVICE_NODE, O_RDWR);
else
afd = open(QCELP_DEVICE_NODE, O_WRONLY);
qcelp_evrc_opflg = 0;
} else {
if (audio_data->mode)
afd = open(EVRC_DEVICE_NODE, O_RDWR);
else
afd = open(EVRC_DEVICE_NODE, O_WRONLY);
qcelp_evrc_opflg = 1;
}
if (afd < 0) {
printf("Unable to open audio device = %s\n",
((qcelp_evrc_opflg) ? EVRC_DEVICE_NODE :
QCELP_DEVICE_NODE));
ret_val = -1;
goto file_err;
}
#ifdef AUDIOV2
if (!audio_data->mode) {
if (ioctl(afd, AUDIO_GET_SESSION_ID, &dec_id)) {
perror("could not get decoder session id\n");
close(afd);
return -1;
}
#if defined(TARGET_USES_QCOM_MM_AUDIO)
if (devmgr_register_session(dec_id, DIR_RX) < 0) {
ret = -1;
goto exit;
}
#endif
}
#endif
/* Store handle for commands */
/* clnt_config->private_data = (void *) afd; */
audio_data->afd = afd;
pthread_create(&event_th, NULL, event_notify, (void *) audio_data);
printf("qcp_play thread start\n");
if (ioctl(afd, AUDIO_GET_CONFIG, &config)) {
printf("could not get config\n");
ret_val = -1;
goto err_state;
}
if (audio_data->mode) {
config.meta_field = 1;
if (ioctl(afd, AUDIO_SET_CONFIG, &config)) {
printf("could not get config\n");
ret_val = -1;
goto err_state;
}
}
if (!qcelp_evrc_opflg) /* 13k selection */
config.buffer_size -= (config.buffer_size % QCELP_PKT_SIZE);
else
config.buffer_size -= (config.buffer_size % EVRC_PKT_SIZE);
if (audio_data->mode)
size = (config.buffer_size + sizeof(struct meta_in));
else
size = config.buffer_size;
transcodebuf = (char *)malloc(size);
if (!transcodebuf) {
printf("could not allocate memory for store transcoded data\n");
ret_val = -1;
goto err_state;
}
memset(transcodebuf, 0, size);
printf("transcodebuf = %d", (int)transcodebuf);
if (audio_data->mode) {
/* non - tunnel portion */
struct msm_audio_pcm_config config_rec;
printf(" selected non-tunnel part\n");
append_header.Sample_rate = clnt_config->sample_rate;
append_header.Number_Channels = clnt_config->channel_mode;
append_header.Bytes_Sec = append_header.Sample_rate *
append_header.Number_Channels * 2;
append_header.Block_align = append_header.Number_Channels * 2;
if (ioctl(afd, AUDIO_GET_PCM_CONFIG, &config_rec)) {
printf("could not get PCM config\n");
ret_val = -1;
goto err_state;
}
printf(" config_rec.pcm_feedback = %d, \
config_rec.buffer_count = %d , \
config_rec.buffer_size=%d \n", \
config_rec.pcm_feedback, \
config_rec.buffer_count, config_rec.buffer_size);
config_rec.pcm_feedback = 1;
audio_data->recsize = config_rec.buffer_size;
audio_data->recbuf = (char *)malloc(config_rec.buffer_size);
if (!audio_data->recbuf) {
printf("could not allocate memory for decoding\n");
ret_val = -1;
goto err_state;
}
memset(audio_data->recbuf, 0, config_rec.buffer_size);
if (ioctl(afd, AUDIO_SET_PCM_CONFIG, &config_rec)) {
printf("could not set PCM config\n");
ret_val = -1;
goto err_state;
}
pthread_create(&thread, NULL, qcp_dec, (void *)audio_data);
}
if (!qcelp_evrc_opflg) { /* 13k selection */
pkts_size = QCELP_PKT_SIZE;
pkts_per_buffer = config.buffer_size / QCELP_PKT_SIZE;
} else { /* EVRC selection */
pkts_size = EVRC_PKT_SIZE;
pkts_per_buffer = config.buffer_size / EVRC_PKT_SIZE;
}
/* Read Data Chunk */
ret = read(fd, &data, sizeof(data));
if (ret < 0) {
ret_val = -1;
goto err_state;
} else
audio_data->start_ptr += ret;
printf("Data chunk size = %d\n", data.s_data);
if (qcpheader->fmt.info.vr_num_of_rates) { /* Variable rate */
for (ii = 0, jj = 0, count = 0; ; ii = ii + inc + 1) {
if ((ii < data.s_data) && (audio_data->quit != 1)) {
int bytetrace;
if (audio_data->mode) {
bytetrace = (jj * pkts_size) + 1 +
sizeof(struct meta_in);
if (jj == 0) {
meta.offset = sizeof(struct meta_in);
meta.timestamp = (audio_data->frame_count * 20000);
meta.nflags = 0;
#ifdef DEBUG_LOCAL
printf("Meta In timestamp: %lld\n",
meta.timestamp);
#endif
memcpy(transcodebuf, &meta,
sizeof(struct meta_in));
}
} else
bytetrace = (jj * pkts_size) + 1;
read(fd, &transcodebuf[bytetrace], 1);
for (rate = 0;
rate < qcpheader->fmt.info.vr_num_of_rates;
rate++) {
if (transcodebuf[bytetrace] == ts[rate].rate) {
inc = ts[rate].size;
break;
}
}
if (rate == qcpheader->fmt.info.vr_num_of_rates) {
printf("Unknown Rate\n");
break;
}
if (audio_data->mode)
bytetrace = (jj * pkts_size) + 2 +
sizeof(struct meta_in);
else
bytetrace = (jj * pkts_size) + 2;
read(fd, &transcodebuf[bytetrace], inc);
count++;
jj++;
if (jj == pkts_per_buffer) {
#ifdef DEBUG_LOCAL
printf("writing %d no of packets\n", jj);
printf("Data1 %d = %p, Data2 %d = %p \n",
transcodebuf[0], &transcodebuf[0],
transcodebuf[1], &transcodebuf[1]);
#endif
audio_data->frame_count += jj;
jj = 0;
if (audio_data->suspend == 1) {
printf("enter suspend mode\n");
ioctl(afd, AUDIO_STOP, 0);
while (audio_data->suspend == 1)
sleep(1);
ioctl(afd, AUDIO_START, 0);
printf("exit suspend mode\n");
}
ret =
write(afd, &transcodebuf[0], size);
if( (ret < 0) && (audio_data->flush_enable == 1) ) {
printf("Flush in progress \n");
usleep(5000);
printf("start_ptr = %d\n", audio_data->start_ptr);
ii = 0;
jj = 0;
/* Set to start of data portion */
lseek(fd, audio_data->start_ptr, SEEK_SET);
}
#ifdef DEBUG_LOCAL
printf("ret = %d\n", ret);
#endif
if (count == pkts_per_buffer * 2)
ioctl(afd, AUDIO_START, 0);
}
} else if ((ii >= data.s_data) && (audio_data->repeat != 0)
&& (audio_data->quit != 1)) {
printf("\nRepeat playback\n");
ii = 0;
jj = 0;
/* Set to start of data portion */
lseek(fd, audio_data->start_ptr, SEEK_SET);
if(audio_data->repeat > 0)
audio_data->repeat--;
sleep(1);
continue;
} else if (((ii >= data.s_data) && (audio_data->repeat == 0))
|| (audio_data->quit == 1))
break;
}
} else { /* Fixed rate */
printf("I am reading Fixed rate encoded data\n");
for (ii = 0, jj = 0, count = 0; ;
ii = ii + qcpheader->fmt.info.bytes_per_pkt) {
if ((ii < data.s_data) && (audio_data->quit != 1)) {
int bytetrace;
if (audio_data->mode) {
bytetrace = (jj * pkts_size) + 1 +
sizeof(struct meta_in);
if (jj == 0) {
meta.offset = sizeof(struct meta_in);
meta.timestamp = (audio_data->frame_count * 20000);
meta.nflags = 0;
#ifdef DEBUG_LOCAL
printf("Meta In timestamp: %lld\n",
meta.timestamp);
#endif
memcpy(transcodebuf, &meta,
sizeof(struct meta_in));
}
} else
bytetrace = (jj * pkts_size) + 1;
read(fd, &transcodebuf[bytetrace],
qcpheader->fmt.info.bytes_per_pkt);
count++;
jj++;
if (jj == pkts_per_buffer) {
#ifdef DEBUG_LOCAL
printf("writing %d no of packets\n", jj);
#endif
audio_data->frame_count += jj;
jj = 0;
if (audio_data->suspend == 1) {
printf("enter suspend mode\n");
ioctl(afd, AUDIO_STOP, 0);
while (audio_data->suspend == 1)
sleep(1);
ioctl(afd, AUDIO_START, 0);
printf("exit suspend mode\n");
}
ret =
write(afd, &transcodebuf[0], size);
if( (ret < 0) && (audio_data->flush_enable == 1) ) {
printf("Flush in progress \n");
usleep(5000);
printf("start_ptr = %d\n", audio_data->start_ptr);
ii = 0;
jj = 0;
/* Set to start of data portion */
lseek(fd, audio_data->start_ptr, SEEK_SET);
}
#ifdef DEBUG_LOCAL
printf("ret = %d\n", ret);
#endif
if (count == pkts_per_buffer * 2)
ioctl(afd, AUDIO_START, 0);
}
} else if ((ii >= data.s_data) && (audio_data->repeat != 0)
&& (audio_data->quit != 1)) {
printf("\nRepeat playback\n");
ii = 0;
jj = 0;
/* Set to start of data portion */
lseek(fd, audio_data->start_ptr, SEEK_SET);
if(audio_data->repeat > 0)
audio_data->repeat--;
sleep(1);
continue;
} else if (((ii >= data.s_data) && (audio_data->repeat == 0))
|| (audio_data->quit == 1))
break;
}
}
if (jj) {
audio_data->frame_count += jj;
printf("write last buffer with remaining frames: %d\n", jj);
ret = write(afd, &transcodebuf[0], ((jj * pkts_size) +
sizeof(struct meta_in)));
printf("ret = %d\n", ret);
}
/* Currently EVRC EOS works only if delay
* is introduced inbetween last buffer and
* EOS buffer. Below loop does that. */
if (qcelp_evrc_opflg) /* EVRC selection */
usleep(50000);
if (audio_data->mode) {
printf("EOS: write with nflags 1\n");
memset(transcodebuf, 0, size);
meta.offset = sizeof(struct meta_in);
meta.timestamp = (audio_data->frame_count * 20000);
meta.nflags = 1;
#ifdef DEBUG_LOCAL
printf("Meta In timestamp: %lld\n", meta.timestamp);
#endif
memcpy(transcodebuf, &meta, sizeof(struct meta_in));
if (write(afd, &transcodebuf[0], sizeof(struct meta_in)) < 0)
printf("Error writing buffer with EOS\n");
} else {
printf("FSYNC: Reached end of file, calling fsync\n");
if (fsync(afd) < 0)
printf(" fsync failed\n");
}
sleep(2);
ioctl(afd, AUDIO_STOP, 0);
printf("count = %d\n", count);
ioctl(afd, AUDIO_ABORT_GET_EVENT, 0);
err_state:
#if defined(TARGET_USES_QCOM_MM_AUDIO) && defined(AUDIOV2)
if (!audio_data->mode) {
if (devmgr_unregister_session(dec_id, DIR_RX) < 0)
ret = -1;
}
exit:
#endif
close(afd);
if (transcodebuf)
free(transcodebuf);
if (audio_data->recbuf)
free(audio_data->recbuf);
file_err:
free(qcpheader);
close(fd);
return ret_val;
}
void *qcp_thread(void *arg)
{
struct audiotest_thread_context *context =
(struct audiotest_thread_context *)arg;
int ret_val;
if (context->config.tgt == 0x07)
ret_val = qcp_start(&context->config);
else
ret_val = qcp_start_8660(&context->config);
printf("Free audio instance 0x%8x \n", (unsigned int) context->config.private_data);
free(context->config.private_data);
free_context(context);
pthread_exit((void *)ret_val);
return NULL;
}
int qcpplay_read_params(void)
{
struct audiotest_thread_context *context;
char *token;
int ret_val = 0;
if ((context = get_free_context()) == NULL) {
ret_val = -1;
} else {
struct audio_pvt_data *audio_data;
audio_data = (struct audio_pvt_data *) malloc(sizeof(struct audio_pvt_data));
if(!audio_data) {
printf("error allocating audio instance structure \n");
free_context(context);
ret_val = -1;
} else {
printf("Created audio instance 0x%8x \n",(unsigned int) audio_data);
memset(audio_data, 0, sizeof(struct audio_pvt_data)); /* Set complete zero */
context->config.file_name = "/data/sample.qcp";
context->type = AUDIOTEST_TEST_MOD_QCP_DEC;
context->config.tgt = 0x7;
#ifdef _ANDROID_
audio_data->outfile = "/data/pcm.wav";
#else
audio_data->outfile = "/tmp/pcm.wav";
#endif
audio_data->repeat = 0;
audio_data->quit = 0;
out_size = 8192 + sizeof(struct dec_meta_out);
in_size = 320;
token = strtok(NULL, " ");
while (token != NULL) {
if (!memcmp(token, "-id=", (sizeof("-id=") - 1))) {
context->cxt_id =
atoi(&token[sizeof("-id=") - 1]);
} else if (!memcmp(token, "-mode=",
(sizeof("-mode=") - 1))) {
audio_data->mode = atoi(&token[sizeof("-mode=") - 1]);
} else if (!memcmp(token, "-out=",
(sizeof("-out=") - 1))) {
audio_data->outfile = token + (sizeof("-out=")-1);
} else if (!memcmp(token, "-repeat=",
(sizeof("-repeat=") - 1))) {
audio_data->repeat = atoi(&token[sizeof("-repeat=") - 1]);
if (audio_data->repeat == 0)
audio_data->repeat = -1;
else
audio_data->repeat--;
} else if (!memcmp(token,"-tgt=", (sizeof("-tgt=") - 1))) {
context->config.tgt = atoi(&token[sizeof("-tgt=") - 1]);
} else if (!memcmp(token, "-wr=",(sizeof("-wr=") - 1))) {
file_write = atoi(&token[sizeof("-wr=") - 1]);
} else if (!memcmp(token, "-outsize=", (sizeof("-outsize=") - 1))) {
out_size = atoi(&token[sizeof("-outsize=") - 1]) + sizeof(struct dec_meta_out);
} else if (!memcmp(token, "-insize=", (sizeof("-insize=") - 1))) {
in_size = atoi(&token[sizeof("-insize=") - 1]);
} else {
context->config.file_name = token;
}
token = strtok(NULL, " ");
}
if (audio_data->mode == 1) { /* non-tunnel */
context->config.sample_rate = 8000;
context->config.channel_mode = 1;
}
context->config.private_data = (struct audio_pvt_data *) audio_data;
pthread_create(&context->thread, NULL,
qcp_thread, (void *)context);
}
}
return ret_val;
}
int qcp_play_control_handler(void *private_data)
{
int drvfd , ret_val = 0;
int volume;
struct audio_pvt_data *audio_data = (struct audio_pvt_data *) private_data;
char *token;
token = strtok(NULL, " ");
if ((private_data != NULL) && (token != NULL)) {
drvfd = audio_data->afd;
if (!memcmp(token, "-cmd=", (sizeof("-cmd=") - 1))) {
token = &token[sizeof("-cmd=") - 1];
printf("%s: cmd %s\n", __FUNCTION__, token);
if (!strcmp(token, "pause")) {
ioctl(drvfd, AUDIO_PAUSE, 1);
} else if (!strcmp(token, "resume")) {
ioctl(drvfd, AUDIO_PAUSE, 0);
#if defined(TARGET_USES_QCOM_MM_AUDIO) && defined(AUDIOV2)
} else if (!strcmp(token, "volume")) {
int rc;
unsigned short dec_id;
token = strtok(NULL, " ");
if (!memcmp(token, "-value=",
(sizeof("-value=") - 1))) {
volume = atoi(&token[sizeof("-value=") - 1]);
if (ioctl(drvfd, AUDIO_GET_SESSION_ID, &dec_id)) {
perror("could not get decoder session id\n");
} else {
printf("session %d - volume %d \n", dec_id, volume);
rc = msm_set_volume(dec_id, volume);
printf("session volume result %d\n", rc);
}
}
#else
} else if (!strcmp(token, "volume")) {
token = strtok(NULL, " ");
if (!memcmp(token, "-value=",
(sizeof("-value=") - 1))) {
volume =
atoi(&token[sizeof("-value=") - 1]);
ioctl(drvfd, AUDIO_SET_VOLUME, volume);
printf("volume:%d\n", volume);
}
#endif
} else if (!strcmp(token, "flush")) {
audio_data->flush_enable = 1;
ioctl(drvfd, AUDIO_FLUSH, 0);
printf("flush\n");
} else if (!strcmp(token, "quit")) {
audio_data->quit = 1;
printf("quit session\n");
}
}
} else {
ret_val = -1;
}
return ret_val;
}
const char *qcpplay_help_txt = "Play QCP file: type \n\
echo \"playqcp path_of_file -id=xxx -mode=x \
-out=path_of_outfile -repeat=x\" > %s \n\
Codec type of QCP file: Qcelp 13K or EVRC \n\
mode= 0(tunnel mode) or 1 (non-tunnel mode) \n\
Repeat 'x' no. of times, repeat infinitely if repeat = 0\n\
Supported control command: pause, resume, volume, flush, quit \n\
examples: \n\
echo \"playqcp path_of_file -id=xxx -mode=<0 or 1>\" > %s \n\
echo \"control_cmd -id=xxx -cmd=pause\" > %s \n\
echo \"control_cmd -id=xxx -cmd=resume\" > %s \n\
echo \"control_cmd -id=xxx -cmd=flush\" > %s \n\
echo \"control_cmd -id=xxx -cmd=volume -value=yyyy\" > %s \n";
void qcpplay_help_menu(void)
{
printf(qcpplay_help_txt, cmdfile, cmdfile, cmdfile,
cmdfile, cmdfile, cmdfile);
}
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