static void undoInsertKey(void* userData)
{
struct InsertKeyData* data = (struct InsertKeyData*)userData;
struct sync_track* t = s_syncTracks[data->track];
sync_del_key(t, data->key.row);
RemoteConnection_sendDeleteKeyCommand(t->name, data->key.row);
}
static void execDeleteKey(void* userData)
{
struct DeleteKeyData* data = (struct DeleteKeyData*)userData;
struct sync_track* t = s_syncTracks[data->track];
int idx = sync_find_key(t, data->row);
data->oldKey = t->keys[idx];
sync_del_key(t, data->row);
RemoteConnection_sendDeleteKeyCommand(t->name, data->row);
}
static void parseXml(mxml_node_t* rootNode, TrackData* trackData)
{
struct track_key k;
int g, i, foldedGroupCount = 0, is_key, track_index = 0;
mxml_node_t* node = rootNode;
free(trackData->bookmarks);
trackData->bookmarks = NULL;
trackData->bookmarkCount = 0;
trackData->highlightRowStep = 8;
// Traverse the tracks node data
while (1)
{
node = mxmlWalkNext(node, rootNode, MXML_DESCEND);
if (!node)
break;
switch (mxmlGetType(node))
{
case MXML_ELEMENT:
{
const char* element_name = mxmlGetElement(node);
if (!strcmp("bookmark", element_name))
{
const char* row = mxmlElementGetAttr(node, "row");
if (row)
TrackData_toggleBookmark(trackData, atoi(row));
}
if (!strcmp("group", element_name))
{
s_foldedGroupNames[foldedGroupCount++] = strdup(mxmlElementGetAttr(node, "name"));
}
if (!strcmp("tracks", element_name))
{
const char* start_row = mxmlElementGetAttr(node, "startRow");
const char* end_row = mxmlElementGetAttr(node, "endRow");
const char* hlrow_step = mxmlElementGetAttr(node, "highlightRowStep");
if (start_row)
trackData->startRow = atoi(start_row);
if (end_row)
trackData->endRow = atoi(end_row);
if (hlrow_step)
trackData->highlightRowStep = atoi(hlrow_step);
}
if (!strcmp("track", element_name))
{
int i;
struct sync_track* track;
Track* t;
// TODO: Create the new track/channel here
const char* track_name = mxmlElementGetAttr(node, "name");
const char* color_text = mxmlElementGetAttr(node, "color");
const char* folded_text = mxmlElementGetAttr(node, "folded");
track_index = TrackData_createGetTrack(trackData, track_name);
t = &trackData->tracks[track_index];
track = trackData->syncData.tracks[track_index];
if (!color_text && t->color == 0)
{
t->color = TrackData_getNextColor(trackData);
}
else
{
if (color_text)
t->color = strtoul(color_text, 0, 16);
}
if (folded_text)
{
if (folded_text[0] == '1')
t->folded = true;
}
// If we already have this track loaded we delete all the existing keys
for (i = 0; i < track->num_keys; ++i)
{
int row = track->keys[i].row;
RemoteConnection_sendDeleteKeyCommand(track->name, row);
}
free(track->keys);
track->keys = 0;
track->num_keys = 0;
}
else if (!strcmp("key", element_name))
{
struct sync_track* track = trackData->syncData.tracks[track_index];
const char* row = mxmlElementGetAttr(node, "row");
const char* value = mxmlElementGetAttr(node, "value");
const char* interpolation = mxmlElementGetAttr(node, "interpolation");
k.row = atoi(row);
k.value = (float)(atof(value));
k.type = (atoi(interpolation));
is_key = is_key_frame(track, k.row);
assert(!is_key);
sync_set_key(track, &k);
RemoteConnection_sendSetKeyCommand(track->name, &k);
}
}
default: break;
}
}
TrackData_linkGroups(trackData);
// Apply fold status on the groups
for (i = 0; i < foldedGroupCount; ++i)
{
for (g = 0; g < trackData->groupCount; ++g)
{
Group* group = &trackData->groups[g];
const char* groupName = group->name;
const char* foldedName = s_foldedGroupNames[i];
// groups with 1 track is handled as non-grouped
if (group->trackCount == 1)
continue;
if (!strcmp(foldedName, groupName))
{
trackData->groups[g].folded = true;
break;
}
}
free(s_foldedGroupNames[i]);
}
trackData->tracks[0].selected = true;
}
static void toggleMute(void* userData)
{
struct MuteData* data = (struct MuteData*)userData;
// if we have mute data we should toggle back the track to it's old form
if (data->track->muteBackup)
{
int i;
sync_del_key(data->syncTrack, 0);
RemoteConnection_sendDeleteKeyCommand(data->syncTrack->name, 0);
for (i = 0; i < data->track->muteKeyCount; ++i)
{
struct track_key* key = &data->track->muteBackup[i];
sync_set_key(data->syncTrack, key);
RemoteConnection_sendSetKeyCommand(data->syncTrack->name, key);
}
data->track->disabled = false;
free(data->track->muteBackup);
data->track->muteBackup = 0;
data->track->muteKeyCount = 0;
}
else
{
struct track_key defKey;
int i;
size_t keysSize = sizeof(struct track_key) * data->syncTrack->num_keys;
float currentValue = (float)sync_get_val(data->syncTrack, data->row);
data->track->disabled = true;
// No muteBackup, this means that we want to mute the channel
data->track->muteBackup = malloc(keysSize);
data->track->muteKeyCount = data->syncTrack->num_keys;
memcpy(data->track->muteBackup, data->syncTrack->keys, keysSize);
for (i = 0; i < data->syncTrack->num_keys; ++i)
{
int row = data->track->muteBackup[i].row;
sync_del_key(data->syncTrack, row);
RemoteConnection_sendDeleteKeyCommand(data->syncTrack->name, row);
}
defKey.row = 0;
defKey.value = currentValue;
defKey.type = KEY_STEP;
// insert key with the current value
sync_set_key(data->syncTrack, &defKey);
RemoteConnection_sendSetKeyCommand(data->syncTrack->name, &defKey);
}
}
