}
void
-PluginInsert::automation_run (samplepos_t start, pframes_t nframes)
+PluginInsert::automation_run (samplepos_t start, pframes_t nframes, bool only_active)
{
// XXX does not work when rolling backwards
if (_loop_location && nframes > 0) {
}
samplecnt_t move = std::min ((samplecnt_t)nframes, loop_end - start_pos);
- Automatable::automation_run (start_pos, move);
+ Automatable::automation_run (start_pos, move, only_active);
remain -= move;
start_pos += move;
}
return;
}
- Automatable::automation_run (start, nframes);
+ Automatable::automation_run (start, nframes, only_active);
}
bool
continue;
}
bool valid;
- uint32_t first_idx = in_map.at(0).get (*t, 0, &valid);
+ uint32_t first_idx = in_map.p(0).get (*t, 0, &valid);
assert (valid && first_idx == 0); // check_inplace ensures this
/* copy the first stream's buffer contents to the others */
for (uint32_t i = 1; i < natural_input_streams ().get (*t); ++i) {
- uint32_t idx = in_map.at(0).get (*t, i, &valid);
+ uint32_t idx = in_map.p(0).get (*t, i, &valid);
if (valid) {
assert (idx == 0);
bufs.get (*t, i).read_from (bufs.get (*t, first_idx), nframes, offset, offset);
if (with_auto) {
+#if 0
uint32_t n = 0;
for (Controls::const_iterator li = controls().begin(); li != controls().end(); ++li, ++n) {
}
}
}
+#else
+ boost::shared_ptr<ControlList> cl = _automated_controls.reader ();
+ for (ControlList::const_iterator ci = cl->begin(); ci != cl->end(); ++ci) {
+ AutomationControl& c = *(ci->get());
+ boost::shared_ptr<const Evoral::ControlList> clist (c.list());
+ /* we still need to check for Touch and Latch */
+ if (clist && (static_cast<AutomationList const&> (*clist)).automation_playback ()) {
+ bool valid;
+ const float val = c.list()->rt_safe_eval (start, valid);
+ if (valid) {
+ c.set_value_unchecked(val);
+ }
+ }
+ }
+#endif
}
/* Calculate if, and how many samples we need to collect for analysis */
//std::cerr << " streams " << internal_input_streams().n_audio() << std::endl;
//std::cerr << "filling buffer with " << collect_signal_nframes << " samples at " << _signal_analysis_collected_nframes << std::endl;
- _signal_analysis_inputs.set_count(input_streams());
+ _signal_analysis_inputs.set_count (ChanCount (DataType::AUDIO, input_streams().n_audio()));
for (uint32_t i = 0; i < input_streams().n_audio(); ++i) {
_signal_analysis_inputs.get_audio(i).read_from (
for (DataType::iterator t = DataType::begin(); t != DataType::end(); ++t) {
for (uint32_t out = 0; out < natural_output_streams().get (*t); ++out) {
bool valid;
- uint32_t out_idx = out_map.at(pc).get (*t, out, &valid);
+ uint32_t out_idx = out_map.p(pc).get (*t, out, &valid);
if (valid) {
used_outputs.set (*t, out_idx, 1); // mark as used
}
for (Plugins::iterator i = _plugins.begin(); i != _plugins.end(); ++i, ++pc) {
ARDOUR::ChanMapping i_in_map (natural_input_streams());
- ARDOUR::ChanMapping i_out_map (out_map.at(pc));
+ ARDOUR::ChanMapping i_out_map (out_map.p(pc));
ARDOUR::ChanCount mapped;
/* map inputs sequentially */
for (DataType::iterator t = DataType::begin(); t != DataType::end(); ++t) {
for (uint32_t in = 0; in < natural_input_streams().get (*t); ++in) {
bool valid;
- uint32_t in_idx = in_map.at(pc).get (*t, in, &valid);
+ uint32_t in_idx = in_map.p(pc).get (*t, in, &valid);
uint32_t m = mapped.get (*t);
if (valid) {
inplace_bufs.get (*t, m).read_from (bufs.get (*t, in_idx), nframes, offset, offset);
/* in-place processing */
uint32_t pc = 0;
for (Plugins::iterator i = _plugins.begin(); i != _plugins.end(); ++i, ++pc) {
- if ((*i)->connect_and_run(bufs, start, end, speed, in_map.at(pc), out_map.at(pc), nframes, offset)) {
+ if ((*i)->connect_and_run(bufs, start, end, speed, in_map.p(pc), out_map.p(pc), nframes, offset)) {
deactivate ();
}
}
//std::cerr << " output, bufs " << bufs.count().n_audio() << " count, " << bufs.available().n_audio() << " available" << std::endl;
//std::cerr << " streams " << internal_output_streams().n_audio() << std::endl;
- _signal_analysis_outputs.set_count(output_streams());
+ _signal_analysis_outputs.set_count (ChanCount (DataType::AUDIO, output_streams().n_audio()));
for (uint32_t i = 0; i < output_streams().n_audio(); ++i) {
_signal_analysis_outputs.get_audio(i).read_from(
void
PluginInsert::silence (samplecnt_t nframes, samplepos_t start_sample)
{
- automation_run (start_sample, nframes); // evaluate automation only
+ automation_run (start_sample, nframes, true); // evaluate automation only
if (!active ()) {
// XXX delaybuffers need to be offset by nframes
}
if (_pending_active) {
+#if defined MIXBUS && defined NDEBUG
+ if (!is_channelstrip ()) {
+ _timing_stats.start ();
+ }
+#else
_timing_stats.start ();
+#endif
/* run as normal if we are active or moving from inactive to active */
if (_session.transport_rolling() || _session.bounce_processing()) {
Glib::Threads::Mutex::Lock lm (control_lock(), Glib::Threads::TRY_LOCK);
connect_and_run (bufs, start_sample, end_sample, speed, nframes, 0, lm.locked());
}
+#if defined MIXBUS && defined NDEBUG
+ if (!is_channelstrip ()) {
+ _timing_stats.update ();
+ }
+#else
_timing_stats.update ();
+#endif
} else {
_timing_stats.reset ();
// XXX should call ::silence() to run plugin(s) for consistent load.
// We'll need to change this anyway when bypass can be automated
bypass (bufs, nframes);
- automation_run (start_sample, nframes); // evaluate automation only
+ automation_run (start_sample, nframes, true); // evaluate automation only
_delaybuffers.flush ();
}
_delaybuffers.configure (_configured_out, _plugins.front ()->max_latency ());
_latency_changed = true;
- // we don't know the analysis window size, so we must work with the
- // current buffer size here. each request for data fills in these
- // buffers and the analyser makes sure it gets enough data for the
- // analysis window
- session().ensure_buffer_set (_signal_analysis_inputs, in);
- _signal_analysis_inputs.set_count (in);
+ /* we don't know the analysis window size, so we must work with the
+ * current buffer size here. each request for data fills in these
+ * buffers and the analyser makes sure it gets enough data for the
+ * analysis window. We also only analyze audio, so we can ignore
+ * MIDI buffers.
+ */
+ ChanCount cc_analysis_in (DataType::AUDIO, in.n_audio());
+ ChanCount cc_analysis_out (DataType::AUDIO, out.n_audio());
+
+ session().ensure_buffer_set (_signal_analysis_inputs, cc_analysis_in);
+ _signal_analysis_inputs.set_count (cc_analysis_in);
- session().ensure_buffer_set (_signal_analysis_outputs, out);
- _signal_analysis_outputs.set_count (out);
+ session().ensure_buffer_set (_signal_analysis_outputs, cc_analysis_out);
+ _signal_analysis_outputs.set_count (cc_analysis_out);
// std::cerr << "set counts to i" << in.n_audio() << "/o" << out.n_audio() << std::endl;
}
}
+bool
+PluginInsert::provides_stats () const
+{
+#if defined MIXBUS && defined NDEBUG
+ if (is_channelstrip () || !display_to_user ()) {
+ return false;
+ }
+#endif
+ return true;
+}
+
bool
PluginInsert::get_stats (uint64_t& min, uint64_t& max, double& avg, double& dev) const
{