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DSView/DSView/pv/sigsession.cpp

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56 KiB
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/*
* This file is part of the DSView project.
* DSView is based on PulseView.
*
* Copyright (C) 2012 Joel Holdsworth <joel@airwebreathe.org.uk>
* Copyright (C) 2013 DreamSourceLab <support@dreamsourcelab.com>
*
* This program is free software; you can redistribute it and/or modify
* it under the terms of the GNU General Public License as published by
* the Free Software Foundation; either version 2 of the License, or
* (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software
* Foundation, Inc., 51 Franklin St, Fifth Floor, Boston, MA 02110-1301 USA
*/
#include <libsigrokdecode.h>
#include "sigsession.h"
#include "mainwindow.h"
#include "data/analogsnapshot.h"
#include "data/dsosnapshot.h"
#include "data/logicsnapshot.h"
#include "data/decoderstack.h"
#include "data/decode/decoder.h"
#include "data/decodermodel.h"
#include "data/spectrumstack.h"
#include "data/mathstack.h"
#include "view/analogsignal.h"
#include "view/dsosignal.h"
#include "view/logicsignal.h"
#include "view/groupsignal.h"
#include "view/decodetrace.h"
#include "view/spectrumtrace.h"
#include "view/lissajoustrace.h"
#include "view/mathtrace.h"
#include <assert.h>
#include <stdexcept>
#include <sys/stat.h>
#include <map>
#include <QString>
#include "data/decode/decoderstatus.h"
#include "dsvdef.h"
#include "log.h"
#include "config/appconfig.h"
#include "utility/path.h"
#include "ui/msgbox.h"
namespace pv
{
SessionData::SessionData()
{
_cur_snap_samplerate = 0;
_cur_samplelimits = 0;
}
void SessionData::clear()
{
logic.clear();
analog.clear();
dso.clear();
}
// TODO: This should not be necessary
SigSession *SigSession::_session = NULL;
SigSession::SigSession()
{
// TODO: This should not be necessary
_session = this;
_map_zoom = 0;
_repeat_hold_prg = 0;
_repeat_intvl = 1;
_error = No_err;
_is_instant = false;
_is_working = false;
_is_saving = false;
_device_status = ST_INIT;
_noData_cnt = 0;
_data_lock = false;
_data_updated = false;
_opt_mode = OPT_SINGLE;
_rt_refresh_time_id = 0;
_rt_ck_refresh_time_id = 0;
_view_data = NULL;
_capture_data = NULL;
_data_list.push_back(new SessionData());
_data_list.push_back(new SessionData());
_view_data = _data_list[0];
_capture_data = _data_list[0];
this->add_msg_listener(this);
_decoder_model = new pv::data::DecoderModel(NULL);
_lissajous_trace = NULL;
_math_trace = NULL;
_stop_scale = 1;
_is_decoding = false;
_bClose = false;
_callback = NULL;
_capture_time_id = 0;
_confirm_store_time_id = 0;
_repeat_wait_prog_step = 10;
_device_agent.set_callback(this);
_feed_timer.SetCallback(std::bind(&SigSession::feed_timeout, this));
_repeat_timer.SetCallback(std::bind(&SigSession::repeat_capture_wait_timeout, this));
_repeat_wait_prog_timer.SetCallback(std::bind(&SigSession::repeat_wait_prog_timeout, this));
_refresh_rt_timer.SetCallback(std::bind(&SigSession::realtime_refresh_timeout, this));
}
SigSession::SigSession(SigSession &o)
{
(void)o;
}
SigSession::~SigSession()
{
for(auto p : _data_list){
p->clear();
delete p;
}
_data_list.clear();
}
bool SigSession::init()
{
ds_log_set_context(dsv_log_context());
ds_set_event_callback(device_lib_event_callback);
ds_set_datafeed_callback(data_feed_callback);
// firmware resource directory
QString resdir = GetResourceDir();
std::string res_path = pv::path::ToUnicodePath(resdir);
ds_set_firmware_resource_dir(res_path.c_str());
if (ds_lib_init() != SR_OK)
{
dsv_err("%s", "DSView run ERROR: collect lib init failed.");
return false;
}
return true;
}
void SigSession::uninit()
{
this->Close();
ds_lib_exit();
}
bool SigSession::set_default_device()
{
assert(!_is_saving);
assert(!_is_working);
struct ds_device_base_info *array = NULL;
int count = 0;
dsv_info("%s", "Set default device.");
if (ds_get_device_list(&array, &count) != SR_OK)
{
dsv_err("%s", "Get device list error!");
return false;
}
if (count < 1 || array == NULL)
{
dsv_err("%s", "Error! Device list is empty, can't set default device.");
return false;
}
struct ds_device_base_info *dev = (array + count - 1);
ds_device_handle dev_handle = dev->handle;
free(array);
if (set_device(dev_handle))
{
return true;
}
return false;
}
bool SigSession::set_device(ds_device_handle dev_handle)
{
assert(!_is_saving);
assert(!_is_working);
assert(_callback);
_callback->trigger_message(DSV_MSG_CURRENT_DEVICE_CHANGE_PREV);
// Release the old device.
_device_agent.release();
if (ds_active_device(dev_handle) != SR_OK)
{
dsv_err("%s", "Switch device error!");
return false;
}
_device_agent.update();
if (_device_agent.is_file())
dsv_info("Switch to file \"%s\" done.", _device_agent.name().toUtf8().data());
else
dsv_info("Switch to device \"%s\" done.", _device_agent.name().toUtf8().data());
_device_status = ST_INIT;
clear_all_decoder();
_view_data->clear();
_capture_data->clear();
init_signals();
_capture_data->_cur_snap_samplerate = _device_agent.get_sample_rate();
_capture_data->_cur_samplelimits = _device_agent.get_sample_limit();
if (_device_agent.get_work_mode() == DSO)
_opt_mode = OPT_REPEAT;
else
_opt_mode = OPT_SINGLE;
// The current device changed.
_callback->trigger_message(DSV_MSG_CURRENT_DEVICE_CHANGED);
return true;
}
bool SigSession::set_file(QString name)
{
assert(!_is_saving);
assert(!_is_working);
dsv_info("Load file:\"%s\"", name.toUtf8().data());
std::string path = path::ToUnicodePath(name);
if (ds_device_from_file(path.c_str()) != SR_OK)
{
dsv_err("%s", "Load file error!");
return false;
}
return set_default_device();
}
void SigSession::close_file(ds_device_handle dev_handle)
{
assert(dev_handle);
if (dev_handle == _device_agent.handle() && _is_working)
{
dsv_err("%s", "The virtual device is running, can't remove it.");
return;
}
bool isCurrent = dev_handle == _device_agent.handle();
if (ds_remove_device(dev_handle) != SR_OK)
{
dsv_err("%s", "Remove virtual deivice error!");
}
if (isCurrent)
set_default_device();
}
bool SigSession::have_hardware_data()
{
if (_device_agent.have_instance() && _device_agent.is_hardware())
{
Snapshot *data = get_signal_snapshot();
return data->have_data();
}
return false;
}
struct ds_device_base_info *SigSession::get_device_list(int &out_count, int &actived_index)
{
out_count = 0;
actived_index = -1;
struct ds_device_base_info *array = NULL;
if (ds_get_device_list(&array, &out_count) == SR_OK)
{
actived_index = ds_get_actived_device_index();
return array;
}
return NULL;
}
uint64_t SigSession::cur_samplerate()
{
// samplerate for current viewport
if (_device_agent.get_work_mode() == DSO)
return _device_agent.get_sample_rate();
else
return cur_snap_samplerate();
}
uint64_t SigSession::cur_snap_samplerate()
{
// samplerate for current snapshot
return _capture_data->_cur_snap_samplerate;
}
uint64_t SigSession::cur_samplelimits(){
return _capture_data->_cur_samplelimits;
}
double SigSession::cur_sampletime()
{
return cur_samplelimits() * 1.0 / cur_samplerate();
}
double SigSession::cur_snap_sampletime()
{
return cur_samplelimits() * 1.0 / cur_snap_samplerate();
}
double SigSession::cur_view_time()
{
return _device_agent.get_time_base() * DS_CONF_DSO_HDIVS * 1.0 / SR_SEC(1);
}
void SigSession::set_cur_snap_samplerate(uint64_t samplerate)
{
assert(samplerate != 0);
_capture_data->_cur_snap_samplerate = samplerate;
_capture_data->get_logic()->set_samplerate(samplerate);
_capture_data->get_analog()->set_samplerate(samplerate);
_capture_data->get_dso()->set_samplerate(samplerate);
// DecoderStack
for (auto d : _decode_traces)
{
d->decoder()->set_samplerate(samplerate);
}
// Math
if (_math_trace && _math_trace->enabled())
_math_trace->get_math_stack()->set_samplerate(_device_agent.get_sample_rate());
// SpectrumStack
for (auto m : _spectrum_traces){
m->get_spectrum_stack()->set_samplerate(samplerate);
}
_callback->cur_snap_samplerate_changed();
}
void SigSession::set_cur_samplelimits(uint64_t samplelimits)
{
assert(samplelimits != 0);
_capture_data->_cur_samplelimits = samplelimits;
}
void SigSession::capture_init()
{
// update instant setting
_device_agent.set_config(NULL, NULL, SR_CONF_INSTANT, g_variant_new_boolean(_is_instant));
_callback->update_capture();
set_cur_snap_samplerate(_device_agent.get_sample_rate());
set_cur_samplelimits(_device_agent.get_sample_limit());
set_stop_scale(1);
_data_updated = false;
_trigger_flag = false;
_trigger_ch = 0;
_hw_replied = false;
_rt_refresh_time_id = 0;
_rt_ck_refresh_time_id = 0;
_noData_cnt = 0;
_data_lock = false;
// Init data container
_capture_data->clear();
int mode = _device_agent.get_work_mode();
if (mode == DSO)
{
for (auto m : _spectrum_traces){
m->get_spectrum_stack()->init();
}
if (_math_trace){
_math_trace->get_math_stack()->init();
}
}
// update current hw offset
for (auto s : _signals)
{
if (s->signal_type() == DSO_SIGNAL){
view::DsoSignal *dsoSig = (view::DsoSignal*)s;
dsoSig->set_zero_ratio(dsoSig->get_zero_ratio());
}
else if (s->signal_type() == ANALOG_SIGNAL){
view::AnalogSignal *analogSig = (view::AnalogSignal*)s;
analogSig->set_zero_ratio(analogSig->get_zero_ratio());
}
}
// Start timer
if (mode == DSO || mode == ANALOG)
_feed_timer.Start(FeedInterval);
else
_feed_timer.Stop();
}
bool SigSession::start_capture(bool instant)
{
assert(_callback);
dsv_info("%s", "Start collect.");
if (_is_working)
{
dsv_err("%s", "Error! Is working now.");
return false;
}
// Check that a device instance has been selected.
if (_device_agent.have_instance() == false)
{
dsv_err("%s", "Error!No device selected");
assert(false);
}
if (_device_agent.is_collecting())
{
dsv_err("%s", "Error!Device is running.");
return false;
}
int run_dex = 0;
clear_all_decode_task(run_dex);
// If switch the data buffer
if (_view_data != _capture_data){
_capture_data->clear();
_capture_data = _view_data;
}
// update setting
if (_device_agent.is_file())
_is_instant = true;
else
_is_instant = instant;
set_cur_snap_samplerate(_device_agent.get_sample_rate());
set_cur_samplelimits(_device_agent.get_sample_limit());
_callback->trigger_message(DSV_MSG_START_COLLECT_WORK_PREV);
if (exec_capture())
{
_capture_time_id++;
_is_working = true;
_callback->trigger_message(DSV_MSG_START_COLLECT_WORK);
// Start a timer, for able to refresh the view per (1000 / 30)ms on real-time mode.
if (is_realtime_mode()){
_refresh_rt_timer.Start(1000 / 30);
}
return true;
}
return false;
}
bool SigSession::exec_capture()
{
if (_device_agent.is_collecting())
{
dsv_err("%s", "Error!Device is running.");
return false;
}
int mode = _device_agent.get_work_mode();
if (mode == DSO || mode == ANALOG)
{
// reset measure of dso signal
for (auto s : _signals){
if (s->signal_type() == DSO_SIGNAL){
view::DsoSignal *dsoSig = (view::DsoSignal*)s;
dsoSig->set_mValid(false);
}
}
}
if (_device_agent.have_enabled_channel() == false)
{
_callback->show_error("No probes enabled.");
return false;
}
capture_init();
if (_device_agent.start() == false)
{
dsv_err("%s", "Start collect error!");
return false;
}
if (mode == LOGIC)
{
// On repeate mode, the last data can use to decode, so can't remove the current decode task.
// And on this mode, the decode task will be created when capture end.
if (is_repeat_mode() == false){
int run_dex = 0;
clear_all_decode_task(run_dex);
clear_decode_result();
}
for (auto de : _decode_traces)
{
de->decoder()->set_capture_end_flag(false);
// On real-time mode, create the decode task when capture started.
if (is_realtime_mode())
{
de->frame_ended();
add_decode_task(de);
}
}
}
return true;
}
void SigSession::stop_capture()
{
if (!_is_working)
return;
dsv_info("%s", "Stop collect.");
if (_bClose)
{
_is_working = false;
_repeat_timer.Stop();
_repeat_wait_prog_timer.Stop();
_refresh_rt_timer.Stop();
exit_capture();
return;
}
bool wait_upload = false;
if (is_single_mode())
{
GVariant *gvar = _device_agent.get_config(NULL, NULL, SR_CONF_WAIT_UPLOAD);
if (gvar != NULL)
{
wait_upload = g_variant_get_boolean(gvar);
g_variant_unref(gvar);
}
}
if (!wait_upload)
{
_is_working = false;
_repeat_timer.Stop();
_repeat_wait_prog_timer.Stop();
_refresh_rt_timer.Stop();
if (_repeat_hold_prg != 0 && is_repeat_mode()){
_repeat_hold_prg = 0;
_callback->repeat_hold(_repeat_hold_prg);
}
_callback->trigger_message(DSV_MSG_END_COLLECT_WORK_PREV);
exit_capture();
if (is_repeat_mode() && _device_agent.is_collecting() == false){
// On repeat mode, the working status is changed, to post the event message.
_callback->trigger_message(DSV_MSG_END_COLLECT_WORK);
}
}
else
{
dsv_info("%s", "Device is uploading.");
}
}
void SigSession::exit_capture()
{
_is_instant = false;
_feed_timer.Stop();
if (_device_agent.is_collecting())
_device_agent.stop();
}
bool SigSession::get_capture_status(bool &triggered, int &progress)
{
uint64_t sample_limits = cur_samplelimits();
sr_status status;
if (_device_agent.get_status(status, true))
{
triggered = status.trig_hit & 0x01;
uint64_t captured_cnt = status.trig_hit >> 2;
captured_cnt = ((uint64_t)status.captured_cnt0 +
((uint64_t)status.captured_cnt1 << 8) +
((uint64_t)status.captured_cnt2 << 16) +
((uint64_t)status.captured_cnt3 << 24) +
(captured_cnt << 32));
if (_device_agent.get_work_mode() == DSO)
captured_cnt = captured_cnt * _signals.size() / get_ch_num(SR_CHANNEL_DSO);
if (triggered)
progress = (sample_limits - captured_cnt) * 100.0 / sample_limits;
else
progress = captured_cnt * 100.0 / sample_limits;
return true;
}
return false;
}
std::vector<view::Signal *> &SigSession::get_signals()
{
return _signals;
}
void SigSession::check_update()
{
ds_lock_guard lock(_data_mutex);
if (_device_agent.is_collecting() == false)
return;
if (_data_updated)
{
if (_device_agent.get_work_mode() != LOGIC)
data_updated();
_data_updated = false;
_noData_cnt = 0;
data_auto_unlock();
}
else
{
if (++_noData_cnt >= (WaitShowTime / FeedInterval))
nodata_timeout();
}
}
void SigSession::init_signals()
{
if (_device_agent.have_instance() == false)
{
assert(false);
}
std::vector<view::Signal *> sigs;
unsigned int logic_probe_count = 0;
unsigned int dso_probe_count = 0;
unsigned int analog_probe_count = 0;
// Detect what data types we will receive
if (_device_agent.have_instance())
{
for (const GSList *l = _device_agent.get_channels(); l; l = l->next)
{
const sr_channel *const probe = (const sr_channel *)l->data;
switch (probe->type)
{
case SR_CHANNEL_LOGIC:
if (probe->enabled)
logic_probe_count++;
break;
case SR_CHANNEL_DSO:
dso_probe_count++;
break;
case SR_CHANNEL_ANALOG:
if (probe->enabled)
analog_probe_count++;
break;
}
}
}
for (GSList *l = _device_agent.get_channels(); l; l = l->next)
{
sr_channel *probe = (sr_channel *)l->data;
assert(probe);
switch (probe->type)
{
case SR_CHANNEL_LOGIC:
if (probe->enabled){
view::Signal *signal = new view::LogicSignal(_view_data->get_logic(), probe);
sigs.push_back(signal);
}
break;
case SR_CHANNEL_DSO:{
view::Signal *signal = new view::DsoSignal(_view_data->get_dso(), probe);
sigs.push_back(signal);
}
break;
case SR_CHANNEL_ANALOG:
if (probe->enabled){
view::Signal *signal = new view::AnalogSignal(_view_data->get_analog(), probe);
sigs.push_back(signal);
}
break;
}
}
RELEASE_ARRAY(_signals);
std::vector<view::Signal *>().swap(_signals);
_signals = sigs;
spectrum_rebuild();
lissajous_disable();
math_disable();
}
void SigSession::reload()
{
if (_device_agent.have_instance() == false)
{
assert(false);
}
if (_is_working)
return;
std::vector<view::Signal *> sigs;
view::Signal *signal = NULL;
// Make the logic probe list
for (GSList *l = _device_agent.get_channels(); l; l = l->next)
{
sr_channel *probe =
(sr_channel *)l->data;
assert(probe);
signal = NULL;
switch (probe->type)
{
case SR_CHANNEL_LOGIC:
if (probe->enabled)
{
auto i = _signals.begin();
while (i != _signals.end())
{
if ((*i)->get_index() == probe->index)
{
if ((*i)->signal_type() == LOGIC_SIGNAL){
view::LogicSignal *logicSig = (view::LogicSignal*)(*i);
signal = new view::LogicSignal(logicSig, _view_data->get_logic(), probe);
}
break;
}
i++;
}
if (signal == NULL)
{
signal = new view::LogicSignal(_view_data->get_logic(), probe);
}
}
break;
case SR_CHANNEL_ANALOG:
if (probe->enabled)
{
auto i = _signals.begin();
while (i != _signals.end())
{
if ((*i)->get_index() == probe->index)
{
if ((*i)->signal_type() == ANALOG_SIGNAL){
view::AnalogSignal *analogSig = (view::AnalogSignal*)(*i);
signal = new view::AnalogSignal(analogSig, _view_data->get_analog(), probe);
}
break;
}
i++;
}
if (signal == NULL)
{
signal = new view::AnalogSignal(_view_data->get_analog(), probe);
}
}
break;
}
if (signal != NULL)
sigs.push_back(signal);
}
if (!sigs.empty())
{
RELEASE_ARRAY(_signals);
std::vector<view::Signal *>().swap(_signals);
_signals = sigs;
}
spectrum_rebuild();
}
void SigSession::refresh(int holdtime)
{
ds_lock_guard lock(_data_mutex);
_data_lock = true;
_view_data->get_logic()->init();
clear_decode_result();
_view_data->get_dso()->init();
for (auto m : _spectrum_traces)
{
m->get_spectrum_stack()->init();
}
if (_math_trace)
_math_trace->get_math_stack()->init();
_view_data->get_analog()->init();
_out_timer.TimeOut(holdtime, std::bind(&SigSession::feed_timeout, this));
_data_updated = true;
}
void SigSession::data_auto_lock(int lock)
{
_data_auto_lock = lock;
}
void SigSession::data_auto_unlock()
{
if (_data_auto_lock > 0)
_data_auto_lock--;
else if (_data_auto_lock < 0)
_data_auto_lock = 0;
}
bool SigSession::get_data_auto_lock()
{
return _data_auto_lock != 0;
}
void SigSession::feed_in_header(const sr_dev_inst *sdi)
{
(void)sdi;
_trigger_pos = 0;
_callback->receive_header();
}
void SigSession::feed_in_meta(const sr_dev_inst *sdi,
const sr_datafeed_meta &meta)
{
(void)sdi;
for (const GSList *l = meta.config; l; l = l->next)
{
const sr_config *const src = (const sr_config *)l->data;
switch (src->key)
{
case SR_CONF_SAMPLERATE:
/// @todo handle samplerate changes
/// samplerate = (uint64_t *)src->value;
break;
}
}
}
void SigSession::feed_in_trigger(const ds_trigger_pos &trigger_pos)
{
_hw_replied = true;
if (_device_agent.get_work_mode() != DSO)
{
_trigger_flag = (trigger_pos.status & 0x01);
if (_trigger_flag)
{
_trigger_pos = trigger_pos.real_pos;
_callback->receive_trigger(_trigger_pos);
}
}
else
{
int probe_count = 0;
int probe_en_count = 0;
for (const GSList *l = _device_agent.get_channels(); l; l = l->next)
{
const sr_channel *const probe = (const sr_channel *)l->data;
if (probe->type == SR_CHANNEL_DSO)
{
probe_count++;
if (probe->enabled)
probe_en_count++;
}
}
_trigger_pos = trigger_pos.real_pos * probe_count / probe_en_count;
_callback->receive_trigger(_trigger_pos);
}
}
void SigSession::feed_in_logic(const sr_datafeed_logic &o)
{
if (_capture_data->get_logic()->memory_failed())
{
dsv_err("%s", "Unexpected logic packet");
return;
}
if (_capture_data->get_logic()->last_ended())
{
_capture_data->get_logic()->first_payload(o, _device_agent.get_sample_limit(), _device_agent.get_channels());
// @todo Putting this here means that only listeners querying
// for logic will be notified. Currently the only user of
// frame_began is DecoderStack, but in future we need to signal
// this after both analog and logic sweeps have begun.
_callback->frame_began();
}
else
{
// Append to the existing data snapshot
_capture_data->get_logic()->append_payload(o);
}
if (_capture_data->get_logic()->memory_failed())
{
_error = Malloc_err;
_callback->session_error();
return;
}
set_receive_data_len(o.length * 8 / get_ch_num(SR_CHANNEL_LOGIC));
_data_updated = true;
}
void SigSession::feed_in_dso(const sr_datafeed_dso &o)
{
if (_capture_data->get_dso()->memory_failed())
{
dsv_err("%s", "Unexpected dso packet");
return; // This dso packet was not expected.
}
if (_capture_data->get_dso()->last_ended())
{
std::map<int, bool> sig_enable;
// reset scale of dso signal
for (auto s : _signals)
{
if (s->signal_type() == DSO_SIGNAL){
view::DsoSignal *dsoSig = (view::DsoSignal*)s;
dsoSig->set_scale(dsoSig->get_view_rect().height());
sig_enable[dsoSig->get_index()] = dsoSig->enabled();
}
}
// first payload
_capture_data->get_dso()->first_payload(o, _device_agent.get_sample_limit(), sig_enable, _is_instant);
}
else
{
// Append to the existing data snapshot
_capture_data->get_dso()->append_payload(o);
}
for (auto s : _signals)
{
if (s->signal_type() == DSO_SIGNAL && (s->enabled())){
view::DsoSignal *dsoSig = (view::DsoSignal*)s;
dsoSig->paint_prepare();
}
}
if (o.num_samples != 0)
{
// update current sample rate
set_cur_snap_samplerate(_device_agent.get_sample_rate());
}
if (_capture_data->get_dso()->memory_failed())
{
_error = Malloc_err;
_callback->session_error();
return;
}
// calculate related spectrum results
for (auto m : _spectrum_traces)
{
if (m->enabled())
m->get_spectrum_stack()->calc_fft();
}
// calculate related math results
if (_math_trace && _math_trace->enabled())
{
_math_trace->get_math_stack()->realloc(_device_agent.get_sample_limit());
_math_trace->get_math_stack()->calc_math();
}
_trigger_flag = o.trig_flag;
_trigger_ch = o.trig_ch;
//Trigger update()
set_receive_data_len(o.num_samples);
if (!_is_instant)
{
_data_lock = true;
}
_data_updated = true;
}
void SigSession::feed_in_analog(const sr_datafeed_analog &o)
{
if (_capture_data->get_analog()->memory_failed())
{
dsv_err("%s", "Unexpected analog packet");
return; // This analog packet was not expected.
}
if (_capture_data->get_analog()->last_ended())
{
// reset scale of analog signal
for (auto s : _signals)
{
if (s->signal_type() == ANALOG_SIGNAL){
view::AnalogSignal *analogSig = (view::AnalogSignal*)s;
analogSig->set_scale(analogSig->get_totalHeight());
}
}
// first payload
_capture_data->get_analog()->first_payload(o, _device_agent.get_sample_limit(), _device_agent.get_channels());
}
else
{
// Append to the existing data snapshot
_capture_data->get_analog()->append_payload(o);
}
if (_capture_data->get_analog()->memory_failed())
{
_error = Malloc_err;
_callback->session_error();
return;
}
set_receive_data_len(o.num_samples);
_data_updated = true;
}
void SigSession::data_feed_in(const struct sr_dev_inst *sdi,
const struct sr_datafeed_packet *packet)
{
assert(sdi);
assert(packet);
ds_lock_guard lock(_data_mutex);
if (_data_lock && packet->type != SR_DF_END)
return;
if (packet->type != SR_DF_END &&
packet->status != SR_PKT_OK)
{
_error = Pkt_data_err;
_callback->session_error();
return;
}
switch (packet->type)
{
case SR_DF_HEADER:
feed_in_header(sdi);
break;
case SR_DF_META:
assert(packet->payload);
feed_in_meta(sdi,
*(const sr_datafeed_meta *)packet->payload);
break;
case SR_DF_TRIGGER:
assert(packet->payload);
feed_in_trigger(*(const ds_trigger_pos *)packet->payload);
break;
case SR_DF_LOGIC:
assert(packet->payload);
feed_in_logic(*(const sr_datafeed_logic *)packet->payload);
break;
case SR_DF_DSO:
assert(packet->payload);
feed_in_dso(*(const sr_datafeed_dso *)packet->payload);
break;
case SR_DF_ANALOG:
assert(packet->payload);
feed_in_analog(*(const sr_datafeed_analog *)packet->payload);
break;
case SR_DF_OVERFLOW:
{
if (_error == No_err)
{
_error = Data_overflow;
_callback->session_error();
}
break;
}
case SR_DF_END:
{
_capture_data->get_logic()->capture_ended();
_capture_data->get_dso()->capture_ended();
_capture_data->get_analog()->capture_ended();
if (packet->status != SR_PKT_OK)
{
_error = Pkt_data_err;
_callback->session_error();
}
else
{
int mode = _device_agent.get_work_mode();
// Post a message to start all decode tasks.
if (mode == LOGIC){
_callback->trigger_message(DSV_MSG_REV_END_PACKET);
}
else{
set_session_time(QDateTime::currentDateTime());
_callback->frame_ended();
}
}
break;
}
}
}
void SigSession::data_feed_callback(const struct sr_dev_inst *sdi,
const struct sr_datafeed_packet *packet)
{
assert(_session);
_session->data_feed_in(sdi, packet);
}
uint16_t SigSession::get_ch_num(int type)
{
uint16_t num_channels = 0;
uint16_t logic_ch_num = 0;
uint16_t dso_ch_num = 0;
uint16_t analog_ch_num = 0;
if (_device_agent.have_instance())
{
for (auto s : _signals)
{
if (!s->enabled())
continue;
if (s->signal_type() == LOGIC_SIGNAL)
logic_ch_num++;
else if (s->signal_type() == DSO_SIGNAL)
dso_ch_num++;
else if (s->signal_type() == ANALOG_SIGNAL)
analog_ch_num++;
}
}
switch (type)
{
case SR_CHANNEL_LOGIC:
num_channels = logic_ch_num;
break;
case SR_CHANNEL_DSO:
num_channels = dso_ch_num;
break;
case SR_CHANNEL_ANALOG:
num_channels = analog_ch_num;
break;
default:
num_channels = logic_ch_num + dso_ch_num + analog_ch_num;
break;
}
return num_channels;
}
bool SigSession::add_decoder(srd_decoder *const dec, bool silent, DecoderStatus *dstatus,
std::list<pv::data::decode::Decoder *> &sub_decoders)
{
if (dec == NULL)
{
dsv_err("%s", "Decoder instance is null!");
assert(false);
}
dsv_info("Create new decoder,name:\"%s\",id:\"%s\"", dec->name, dec->id);
try
{
bool ret = false;
// Create the decoder
std::map<const srd_channel *, int> probes;
data::DecoderStack *decoder_stack = new data::DecoderStack(this, dec, dstatus);
assert(decoder_stack);
// Make a list of all the probes
std::vector<const srd_channel *> all_probes;
for (const GSList *i = dec->channels; i; i = i->next)
all_probes.push_back((const srd_channel *)i->data);
for (const GSList *i = dec->opt_channels; i; i = i->next)
all_probes.push_back((const srd_channel *)i->data);
decoder_stack->stack().front()->set_probes(probes);
// Create the decode signal
view::DecodeTrace *trace = new view::DecodeTrace(this, decoder_stack, _decode_traces.size());
assert(trace);
// add sub decoder
for (auto sub : sub_decoders)
{
trace->decoder()->add_sub_decoder(sub);
}
sub_decoders.clear();
// set view early for decode start/end region setting
for (auto s : _signals)
{
if (s->get_view())
{
trace->set_view(s->get_view());
break;
}
}
if (silent)
{
ret = true;
}
else if (trace->create_popup(true))
{
ret = true;
}
if (ret)
{
_decode_traces.push_back(trace);
// add decode task from ui
if (!silent)
{
add_decode_task(trace);
}
signals_changed();
data_updated();
}
else
{
delete trace;
}
return ret;
}
catch (...)
{
dsv_err("%s", "Error!add_decoder() throws an exception.");
}
return false;
}
int SigSession::get_trace_index_by_key_handel(void *handel)
{
int dex = 0;
for (auto tr : _decode_traces)
{
if (tr->decoder()->get_key_handel() == handel)
{
return dex;
}
++dex;
}
return -1;
}
void SigSession::remove_decoder(int index)
{
int size = (int)_decode_traces.size();
assert(index < size);
auto it = _decode_traces.begin() + index;
auto trace = (*it);
_decode_traces.erase(it);
bool isRunning = trace->decoder()->IsRunning();
remove_decode_task(trace);
if (isRunning)
{
// destroy it in thread
trace->_delete_flag = true;
}
else
{
delete trace;
signals_changed();
}
}
void SigSession::remove_decoder_by_key_handel(void *handel)
{
int dex = get_trace_index_by_key_handel(handel);
remove_decoder(dex);
}
void SigSession::rst_decoder(int index)
{
auto trace = get_decoder_trace(index);
if (trace && trace->create_popup(false))
{
remove_decode_task(trace); // remove old task
trace->decoder()->clear();
add_decode_task(trace);
data_updated();
}
}
void SigSession::rst_decoder_by_key_handel(void *handel)
{
int dex = get_trace_index_by_key_handel(handel);
rst_decoder(dex);
}
void SigSession::spectrum_rebuild()
{
bool has_dso_signal = false;
for (auto s : _signals)
{
if (s->signal_type() == DSO_SIGNAL){
has_dso_signal = true;
// check already have
auto iter = _spectrum_traces.begin();
for (unsigned int i = 0; i < _spectrum_traces.size(); i++, iter++){
if ((*iter)->get_index() == s->get_index())
break;
}
// if not, rebuild
if (iter == _spectrum_traces.end())
{
auto spectrum_stack = new data::SpectrumStack(this, s->get_index());
auto spectrum_trace = new view::SpectrumTrace(this, spectrum_stack, s->get_index());
_spectrum_traces.push_back(spectrum_trace);
}
}
}
if (!has_dso_signal)
{
RELEASE_ARRAY(_spectrum_traces);
}
signals_changed();
}
void SigSession::lissajous_rebuild(bool enable, int xindex, int yindex, double percent)
{
DESTROY_OBJECT(_lissajous_trace);
_lissajous_trace = new view::LissajousTrace(enable, _view_data->get_dso(), xindex, yindex, percent);
signals_changed();
}
void SigSession::lissajous_disable()
{
if (_lissajous_trace)
_lissajous_trace->set_enable(false);
}
void SigSession::math_rebuild(bool enable, view::DsoSignal *dsoSig1,
view::DsoSignal *dsoSig2,
data::MathStack::MathType type)
{
ds_lock_guard lock(_data_mutex);
auto math_stack = new data::MathStack(this, dsoSig1, dsoSig2, type);
DESTROY_OBJECT(_math_trace);
_math_trace = new view::MathTrace(enable, math_stack, dsoSig1, dsoSig2);
if (_math_trace && _math_trace->enabled())
{
int rt = _view_data->get_dso()->samplerate();
if (rt > 0){
_math_trace->get_math_stack()->set_samplerate(rt);
_math_trace->get_math_stack()->realloc(_device_agent.get_sample_limit());
_math_trace->get_math_stack()->calc_math();
}
}
signals_changed();
}
void SigSession::math_disable()
{
if (_math_trace)
_math_trace->set_enable(false);
}
void SigSession::nodata_timeout()
{
GVariant *gvar = _device_agent.get_config(NULL, NULL, SR_CONF_TRIGGER_SOURCE);
if (gvar == NULL)
return;
if (g_variant_get_byte(gvar) != DSO_TRIGGER_AUTO)
{
_callback->show_wait_trigger();
}
}
void SigSession::feed_timeout()
{
_data_lock = false;
if (!_data_updated)
{
if (++_noData_cnt >= (WaitShowTime / FeedInterval))
nodata_timeout();
}
}
data::Snapshot *SigSession::get_snapshot(int type)
{
if (type == SR_CHANNEL_LOGIC)
return _view_data->get_logic();
else if (type == SR_CHANNEL_ANALOG)
return _view_data->get_analog();
else if (type == SR_CHANNEL_DSO)
return _view_data->get_dso();
else
return NULL;
}
void SigSession::clear_error()
{
_error_pattern = 0;
_error = No_err;
}
int SigSession::get_repeat_hold()
{
if (!_is_instant && _is_working && is_repeat_mode())
return _repeat_hold_prg;
else
return 0;
}
void SigSession::auto_end()
{
for (auto s : _signals)
{
if (s->signal_type() == DSO_SIGNAL)
{
view::DsoSignal *dsoSig = (view::DsoSignal*)s;
dsoSig->auto_end();
}
}
}
void SigSession::Open()
{
}
void SigSession::Close()
{
if (_bClose)
return;
_bClose = true;
// Stop decode thread.
clear_all_decoder(false);
stop_capture();
// TODO: This should not be necessary
_session = NULL;
}
// append a decode task, and try create a thread
void SigSession::add_decode_task(view::DecodeTrace *trace)
{
std::lock_guard<std::mutex> lock(_decode_task_mutex);
_decode_tasks.push_back(trace);
if (!_is_decoding)
{
if (_decode_thread.joinable())
_decode_thread.join();
_decode_thread = std::thread(&SigSession::decode_task_proc, this);
_is_decoding = true;
}
}
void SigSession::remove_decode_task(view::DecodeTrace *trace)
{
std::lock_guard<std::mutex> lock(_decode_task_mutex);
for (auto it = _decode_tasks.begin(); it != _decode_tasks.end(); it++)
{
if ((*it) == trace)
{
(*it)->decoder()->stop_decode_work();
_decode_tasks.erase(it);
dsv_info("%s", "remove a waiting decode task");
return;
}
}
// the task maybe is running
trace->decoder()->stop_decode_work();
}
void SigSession::clear_all_decoder(bool bUpdateView)
{
if (_decode_traces.empty())
return;
// create the wait task deque
int dex = -1;
clear_all_decode_task(dex);
view::DecodeTrace *runningTrace = NULL;
if (dex != -1)
{
runningTrace = _decode_traces[dex];
runningTrace->_delete_flag = true; // destroy it in thread
}
for (auto trace : _decode_traces)
{
if (trace != runningTrace)
delete trace;
}
_decode_traces.clear();
if (!_bClose && bUpdateView)
signals_changed();
}
void SigSession::clear_all_decode_task(int &runningDex)
{
if (true)
{
std::lock_guard<std::mutex> lock(_decode_task_mutex);
// remove wait task
for (auto trace : _decode_tasks)
{
trace->decoder()->stop_decode_work(); // set decode proc stop flag
}
_decode_tasks.clear();
}
// make sure the running task can stop
runningDex = -1;
int dex = 0;
for (auto trace : _decode_traces)
{
if (trace->decoder()->IsRunning())
{
trace->decoder()->stop_decode_work();
runningDex = dex;
}
dex++;
}
// Wait the thread end.
if (_decode_thread.joinable())
_decode_thread.join();
}
view::DecodeTrace *SigSession::get_decoder_trace(int index)
{
if (index >= 0 && index < (int)_decode_traces.size())
{
return _decode_traces[index];
}
assert(false);
}
view::DecodeTrace *SigSession::get_top_decode_task()
{
std::lock_guard<std::mutex> lock(_decode_task_mutex);
auto it = _decode_tasks.begin();
if (it != _decode_tasks.end())
{
auto p = (*it);
_decode_tasks.erase(it);
return p;
}
return NULL;
}
// the decode task thread proc
void SigSession::decode_task_proc()
{
dsv_info("%s", "------->decode thread start");
auto task = get_top_decode_task();
while (task != NULL)
{
if (!task->_delete_flag)
{
task->decoder()->begin_decode_work();
}
if (task->_delete_flag)
{
dsv_info("%s", "destroy a decoder in task thread");
DESTROY_QT_LATER(task);
std::this_thread::sleep_for(std::chrono::milliseconds(100));
if (!_bClose)
{
signals_changed();
}
}
task = get_top_decode_task();
}
dsv_info("%s", "------->decode thread end");
_is_decoding = false;
}
Snapshot *SigSession::get_signal_snapshot()
{
int mode = _device_agent.get_work_mode();
if (mode == ANALOG)
return _view_data->get_analog();
else if (mode == DSO)
return _view_data->get_dso();
else
return _view_data->get_logic();
}
void SigSession::device_lib_event_callback(int event)
{
if (_session == NULL)
{
dsv_err("%s", "Error!Global variable \"_session\" is null.");
return;
}
_session->on_device_lib_event(event);
}
void SigSession::on_device_lib_event(int event)
{
if (_callback == NULL)
{
dsv_detail("%s", "The callback is null, so the device event was ignored.");
return;
}
switch (event)
{
case DS_EV_DEVICE_RUNNING:
_device_status = ST_RUNNING;
set_receive_data_len(0);
break;
case DS_EV_DEVICE_STOPPED:
_device_status = ST_STOPPED;
// Confirm that SR_DF_END was received
if ( !_capture_data->get_logic()->last_ended()
|| !_capture_data->get_dso()->last_ended()
|| !_capture_data->get_analog()->last_ended())
{
dsv_err("%s", "Error!The data is not completed.");
assert(false);
}
break;
case DS_EV_COLLECT_TASK_START:
_callback->trigger_message(DSV_MSG_COLLECT_START);
break;
case DS_EV_COLLECT_TASK_END:
case DS_EV_COLLECT_TASK_END_BY_ERROR:
case DS_EV_COLLECT_TASK_END_BY_DETACHED:
{
_callback->trigger_message(DSV_MSG_COLLECT_END);
if (_capture_data->get_logic()->last_ended() == false)
dsv_err("%s", "The collected data is error!");
if (_capture_data->get_dso()->last_ended() == false)
dsv_err("%s", "The collected data is error!");
if (_capture_data->get_analog()->last_ended() == false)
dsv_err("%s", "The collected data is error!");
// trigger next collect
if (!_is_instant && is_repeat_mode() && _is_working && event == DS_EV_COLLECT_TASK_END)
{
_callback->trigger_message(DSV_MSG_TRIG_NEXT_COLLECT);
}
else
{
_is_working = false;
_is_instant = false;
_callback->trigger_message(DSV_MSG_END_COLLECT_WORK);
}
}
break;
case DS_EV_NEW_DEVICE_ATTACH:
case DS_EV_CURRENT_DEVICE_DETACH:
{
if (_is_working)
stop_capture();
if (DS_EV_NEW_DEVICE_ATTACH == event)
_callback->trigger_message(DSV_MSG_NEW_USB_DEVICE);
else
_callback->trigger_message(DSV_MSG_CURRENT_DEVICE_DETACHED);
}
break;
case DS_EV_INACTIVE_DEVICE_DETACH:
_callback->trigger_message(DSV_MSG_DEVICE_LIST_UPDATED); // Update list only.
break;
default:
dsv_err("%s", "Error!Unknown device event.");
break;
}
}
void SigSession::add_msg_listener(IMessageListener *ln)
{
_msg_listeners.push_back(ln);
}
void SigSession::broadcast_msg(int msg)
{
for (IMessageListener *cb : _msg_listeners)
{
cb->OnMessage(msg);
}
}
void SigSession::set_operation_mode(COLLECT_OPT_MODE repeat)
{
assert(!_is_working);
if (_opt_mode != repeat)
{
_opt_mode = repeat;
_repeat_hold_prg = 0;
}
}
void SigSession::repeat_capture_wait_timeout()
{
_repeat_timer.Stop();
_repeat_wait_prog_timer.Stop();
_repeat_hold_prg = 0;
if (_is_working)
{
_callback->repeat_hold(_repeat_hold_prg);
exec_capture();
}
}
void SigSession::repeat_wait_prog_timeout()
{
_repeat_hold_prg -= _repeat_wait_prog_step;
if (_repeat_hold_prg < 0)
_repeat_hold_prg = 0;
if (_is_working)
_callback->repeat_hold(_repeat_hold_prg);
}
void SigSession::OnMessage(int msg)
{
switch (msg)
{
case DSV_MSG_DEVICE_OPTIONS_UPDATED:
reload();
break;
case DSV_MSG_TRIG_NEXT_COLLECT:
{
if (_is_working && is_repeat_mode())
{
if (_repeat_intvl > 0)
{
_repeat_hold_prg = 100;
_repeat_timer.Start(_repeat_intvl * 1000);
int intvl = _repeat_intvl * 1000 / 20;
if (intvl >= 100){
_repeat_wait_prog_step = 5;
}
else if (_repeat_intvl >= 1){
intvl = _repeat_intvl * 1000 / 10;
_repeat_wait_prog_step = 10;
}
else{
intvl = _repeat_intvl * 1000 / 5;
_repeat_wait_prog_step = 20;
}
_repeat_wait_prog_timer.Start(intvl);
}
else
{
_repeat_hold_prg = 0;
exec_capture();
}
}
}
break;
case DSV_MSG_REV_END_PACKET:
{
if (_device_agent.get_work_mode() == LOGIC)
{
// On repeate mode, remove the current decode task when capture ended.
if (is_repeat_mode()){
int run_dex = 0;
//Stop all old task.
clear_all_decode_task(run_dex);
clear_decode_result();
// Change the captrue data container.
int buf_index = 0;
for(int i=0; i<(int)_data_list.size(); i++){
if (_data_list[i] == _capture_data){
buf_index = i;
break;
}
}
_view_data = _capture_data;
buf_index = (buf_index + 1) % 2;
_capture_data = _data_list[buf_index];
_capture_data->clear();
set_cur_snap_samplerate(_device_agent.get_sample_rate());
set_cur_samplelimits(_device_agent.get_sample_limit());
attach_data_to_signal(_view_data);
}
for (auto de : _decode_traces)
{
de->decoder()->set_capture_end_flag(true);
// On real-time mode, the decode task have be created when capture start,
// so not need to create new decode task here.
if (is_realtime_mode() == false){
de->frame_ended();
add_decode_task(de);
}
}
_callback->frame_ended();
}
}
break;
case DSV_MSG_COLLECT_END:
break;
}
}
void SigSession::DeviceConfigChanged()
{
// Nonthing.
}
bool SigSession::switch_work_mode(int mode)
{
assert(!_is_working);
int cur_mode = _device_agent.get_work_mode();
if (cur_mode != mode)
{
GVariant *val = g_variant_new_int16(mode);
_device_agent.set_config(NULL, NULL, SR_CONF_DEVICE_MODE, val);
if (cur_mode == LOGIC){
int run_dex = 0;
clear_all_decode_task(run_dex);
}
init_signals();
dsv_info("%s", "Work mode is changed.");
broadcast_msg(DSV_MSG_DEVICE_MODE_CHANGED);
return true;
}
return false;
}
bool SigSession::is_first_store_confirm()
{
if (_capture_time_id != _confirm_store_time_id){
_confirm_store_time_id = _capture_time_id;
return true;
}
return false;
}
void SigSession::realtime_refresh_timeout()
{
_rt_refresh_time_id++;
}
bool SigSession::have_new_realtime_refresh(bool keep)
{
if (_rt_ck_refresh_time_id != _rt_refresh_time_id){
if (!keep){
_rt_ck_refresh_time_id = _rt_refresh_time_id;
}
return true;
}
return false;
}
void SigSession::clear_decode_result()
{
for (auto d : _decode_traces)
{
d->decoder()->init();
}
}
void SigSession::attach_data_to_signal(SessionData *data)
{
assert(data);
view::LogicSignal *s1;
view::AnalogSignal *s2;
view::DsoSignal *s3;
for (auto sig : _signals){
int type = sig->signal_type();
switch(type){
case LOGIC_SIGNAL:
s1 = (view::LogicSignal*)sig;
s1->set_data(data->get_logic());
break;
case ANALOG_SIGNAL:
s2 = (view::AnalogSignal*)sig;
s2->set_data(data->get_analog());
break;
case DSO_SIGNAL:
s3 = (view::DsoSignal*)sig;
s3->set_data(data->get_dso());
break;
}
}
}
} // namespace pv