public bool ProcessImageQueue(int packetsToSend)
{
int StartTime = Util.EnvironmentTickCount();
int packetsSent = 0;
while (packetsSent < packetsToSend)
{
J2KImage image = GetHighestPriorityImage();
// If null was returned, the texture priority queue is currently empty
if (image == null)
{
return(false);
}
if (image.IsDecoded)
{
int sent;
bool imageDone = image.SendPackets(m_client, packetsToSend - packetsSent, out sent);
packetsSent += sent;
// If the send is complete, destroy any knowledge of this transfer
if (imageDone)
{
RemoveImageFromQueue(image);
}
}
else
{
// TODO: This is a limitation of how LLImageManager is currently
// written. Undecoded textures should not be going into the priority
// queue, because a high priority undecoded texture will clog up the
// pipeline for a client
return(true);
}
}
int EndTime = Util.EnvironmentTickCountSubtract(StartTime);
IMonitorModule module = m_client.Scene.RequestModuleInterface <IMonitorModule>();
if (module != null)
{
IImageFrameTimeMonitor monitor = (IImageFrameTimeMonitor)module.GetMonitor(m_client.Scene.RegionInfo.RegionID.ToString(), "Images Frame Time");
monitor.AddImageTime(EndTime);
}
return(m_priorityQueue.Count > 0);
}
public bool ProcessImageQueue(int packetsToSend)
{
int packetsSent = 0;
while (packetsSent < packetsToSend)
{
J2KImage image = GetHighestPriorityImage();
// If null was returned, the texture priority queue is currently empty
if (image == null)
{
break;
}
if (image.IsDecoded)
{
int sent;
bool imageDone = image.SendPackets(Client, packetsToSend - packetsSent, out sent);
packetsSent += sent;
// If the send is complete, destroy any knowledge of this transfer
if (imageDone)
{
RemoveImageFromQueue(image);
}
}
else
{
// TODO: This is a limitation of how LLImageManager is currently
// written. Undecoded textures should not be going into the priority
// queue, because a high priority undecoded texture will clog up the
// pipeline for a client
// m_log.DebugFormat(
// "[LL IMAGE MANAGER]: Exiting image queue processing early on encountering undecoded image {0}",
// image.TextureID);
break;
}
}
// if (packetsSent != 0)
// m_log.DebugFormat("[LL IMAGE MANAGER]: Processed {0} packets from image queue", packetsSent);
return(m_priorityQueue.Count > 0);
}
public bool ProcessImageQueue(int packetsToSend)
{
int packetsSent = 0;
while (packetsSent < packetsToSend)
{
J2KImage image = GetHighestPriorityImage();
// If null was returned, the texture priority queue is currently empty
if (image == null)
{
return(false);
}
image.CheckDoFirstUpdate();
if (image.IsDecoded)
{
int sent;
bool imageDone = image.SendPackets(m_client, packetsToSend - packetsSent, out sent);
packetsSent += sent;
// If the send is complete, destroy any knowledge of this transfer
if (imageDone)
{
RemoveImageFromQueue(image);
}
}
else
{
// TODO: This is a limitation of how LLImageManager is currently
// written. Undecoded textures should not be going into the priority
// queue, because a high priority undecoded texture will clog up the
// pipeline for a client
return(true);
}
}
return(m_priorityQueue.Count > 0);
}
public bool ProcessImageQueue(int packetsToSend)
{
int StartTime = Util.EnvironmentTickCount();
int packetsSent = 0;
List <J2KImage> imagesToReAdd = new List <J2KImage>();
while (packetsSent < packetsToSend)
{
J2KImage image = GetHighestPriorityImage();
// If null was returned, the texture priority queue is currently empty
if (image == null)
{
break; //Break so that we add any images back that we might remove because they arn't finished decoding
}
if (image.IsDecoded)
{
if (image.Layers == null)
{
//We don't have it, tell the client that it doesn't exist
m_client.SendAssetUploadCompleteMessage((sbyte)AssetType.Texture, false, image.TextureID);
RemoveImageFromQueue(image);
packetsSent++;
}
else
{
int sent;
bool imageDone = image.SendPackets(m_client, packetsToSend - packetsSent, out sent);
packetsSent += sent;
// If the send is complete, destroy any knowledge of this transfer
if (imageDone)
{
RemoveImageFromQueue(image);
}
}
}
else
{
//Add it to the other queue and delete it from the top
imagesToReAdd.Add(image);
m_priorityQueue.DeleteMax();
packetsSent++; //We tried to send one
// UNTODO: This was a limitation of how LLImageManager is currently
// written. Undecoded textures should not be going into the priority
// queue, because a high priority undecoded texture will clog up the
// pipeline for a client
//return true;
}
}
//Add all the ones we removed so that we wouldn't block the queue
if (imagesToReAdd.Count != 0)
{
foreach (J2KImage image in imagesToReAdd)
{
this.AddImageToQueue(image);
}
}
int EndTime = Util.EnvironmentTickCountSubtract(StartTime);
IMonitorModule module = m_client.Scene.RequestModuleInterface <IMonitorModule>();
if (module != null)
{
IImageFrameTimeMonitor monitor = (IImageFrameTimeMonitor)module.GetMonitor(m_client.Scene.RegionInfo.RegionID.ToString(), "Images Frame Time");
monitor.AddImageTime(EndTime);
}
return(m_priorityQueue.Count > 0);
}
public void ProcessImageQueue(int count)
{
// this can happen during Close()
if (m_client == null)
{
return;
}
//Count is the number of textures we want to process in one go.
//As part of this class re-write, that number will probably rise
//since we're processing in a more efficient manner.
int numCollected = 0;
//Calculate our threshold
int threshold;
if (m_lastloopprocessed == 0)
{
if (m_client.PacketHandler == null || m_client.PacketHandler.PacketQueue == null || m_client.PacketHandler.PacketQueue.TextureThrottle == null)
{
return;
}
//This is decent for a semi fast machine, but we'll calculate it more accurately based on time below
threshold = m_client.PacketHandler.PacketQueue.TextureThrottle.Current / 6300;
m_lastloopprocessed = DateTime.Now.Ticks;
}
else
{
double throttleseconds = ((double)DateTime.Now.Ticks - (double)m_lastloopprocessed) / (double)TimeSpan.TicksPerSecond;
throttleseconds = throttleseconds * m_client.PacketHandler.PacketQueue.TextureThrottle.Current;
//Average of 1000 bytes per packet
throttleseconds = throttleseconds / 1000;
//Safe-zone multiplier of 2.0
threshold = (int)(throttleseconds * 2.0);
m_lastloopprocessed = DateTime.Now.Ticks;
}
if (threshold < 10)
{
threshold = 10;
}
if (m_client.PacketHandler == null)
{
return;
}
if (m_client.PacketHandler.PacketQueue == null)
{
return;
}
//First of all make sure our packet queue isn't above our threshold
//Uncomment this to see what the texture stack is doing
//m_log.Debug("Queue: " + m_client.PacketHandler.PacketQueue.TextureOutgoingPacketQueueCount.ToString() + " Threshold: " + threshold.ToString() + " outstanding: " + m_outstandingtextures.ToString());
if (m_client.PacketHandler.PacketQueue.TextureOutgoingPacketQueueCount < threshold && m_outstandingtextures > 0)
{
bool justreset = false;
for (int x = m_priorities.Count - 1; x > -1; x--)
{
J2KImage imagereq = m_imagestore[m_priorities.Values[x]];
if (imagereq.m_decoded == true && !imagereq.m_completedSendAtCurrentDiscardLevel)
{
numCollected++;
//SendPackets will send up to ten packets per cycle
if (imagereq.SendPackets(m_client))
{
//Send complete
if (!imagereq.m_completedSendAtCurrentDiscardLevel)
{
imagereq.m_completedSendAtCurrentDiscardLevel = true;
m_outstandingtextures--;
//Re-assign priority to bottom
//Remove the old priority
m_priorities.Remove(imagereq.m_designatedPriorityKey);
int lowest;
if (m_priorities.Count > 0)
{
lowest = (int)m_priorities.Keys[0];
lowest--;
}
else
{
lowest = -10000;
}
m_priorities.Add((double)lowest, imagereq.m_requestedUUID);
imagereq.m_designatedPriorityKey = (double)lowest;
if (m_priorityresolver.ContainsKey((int)lowest))
{
m_priorityresolver[(int)lowest]++;
}
else
{
m_priorityresolver.Add((int)lowest, 0);
}
}
}
if (numCollected == count)
{
break;
}
}
if (numCollected == count || m_outstandingtextures == 0)
{
break;
}
if (numCollected % m_outstandingtextures == 0 && !justreset)
{
//We've gotten as much as we can from the stack,
//reset to the top so that we can send MOAR DATA (nomnomnom)!
x = m_priorities.Count - 1;
justreset = true; //prevents us from getting stuck in a loop
}
}
}
}
