public virtual void LatencyAdjustment(GameTime gameTime, long messageTimeStamp)
{
this.secondsUntilUpdateMessage = this.SecondsBetweenUpdateMessage;
this.lastMessageTimeStamp = messageTimeStamp;
TimeSpan deltaSpan = new TimeSpan(gameTime.TotalGameTime.Ticks - this.lastMessageTimeStamp);
averageLatency.AddValue((float)(deltaSpan.TotalSeconds));
float timeDeviation = (float)(deltaSpan.TotalSeconds) - averageLatency.AverageValue;
if (timeDeviation > 0)
{
GameObjectField.SetModeSimulation();
this.SubclassUpdate(timeDeviation);
this.SimulationStateOnlyUpdate(timeDeviation);
this.Smooth(timeDeviation);
}
}
public Obstacle PerformSpawn()
{
#if DEBUG
var screen = FlatRedBall.Screens.ScreenManager.CurrentScreen;
LastTwoSpawnTimes[0] = LastTwoSpawnTimes[1];
LastTwoSpawnTimes[1] = screen.PauseAdjustedCurrentTime;
SpawnRollingAverage.AddValue((float)(LastTwoSpawnTimes[1] - LastTwoSpawnTimes[0]));
#endif
var newObstacle = ObstacleFactory.CreateNew();
if (FlatRedBallServices.Random.Between(0, 1) < RatioOfGold)
{
newObstacle.CurrentBonusCategoryState = Obstacle.BonusCategory.Bonus;
}
int repositionsSoFar = 0;
while (repositionsSoFar <= NumberOfTimesToRepositionCrates)
{
PositionNewObstacle(newObstacle);
var distanceFromCenterOfPath = Math.Abs(newObstacle.X - pathX) - newObstacle.Width;
bool isOnPath = distanceFromCenterOfPath < PathWidth / 2.0f;
if (!isOnPath)
{
break;
}
repositionsSoFar++;
}
lastSpawnY = this.Y;
return(newObstacle);
}
public static string ForceGetMemoryInformation()
{
string memoryInformation;
long currentUsage;
#if WINDOWS_PHONE
currentUsage = (long)DeviceExtendedProperties.GetValue("ApplicationCurrentMemoryUsage");
memoryInformation = DeviceExtendedProperties.GetValue("DeviceTotalMemory") + "\n" +
currentUsage + "\n" +
DeviceExtendedProperties.GetValue("ApplicationPeakMemoryUsage");
#else
currentUsage = GC.GetTotalMemory(false);
memoryInformation = "Total Memory: " + currentUsage;
#endif
#if DEBUG
if (mLastMemoryUse >= 0)
{
long difference = currentUsage - mLastMemoryUse;
if (difference >= 0)
{
mAllocationAverage.AddValue((float)(difference / mMemoryUpdateFrequency));
}
}
memoryInformation += "\nAverage Growth per second: " +
mAllocationAverage.Average.ToString("0,000");
#endif
LastCalculationTime = TimeManager.CurrentTime;
#if DEBUG
mLastMemoryUse = currentUsage;
#endif
return(memoryInformation);
}
/// <summary>
/// Incoming network packets tell us where the tank was at the time the packet
/// was sent. But packets do not arrive instantly! We want to know where the
/// tank is now, not just where it used to be. This method attempts to guess
/// the current state by figuring out how long the packet took to arrive, then
/// running the appropriate number of local updates to catch up to that time.
/// This allows us to figure out things like "it used to be over there, and it
/// was moving that way while turning to the left, so assuming it carried on
/// using those same inputs, it should now be over here".
/// </summary>
private void ApplyPrediction(GameTime gameTime, TimeSpan latency, float packetSendTime)
{
// Work out the difference between our current local time
// and the remote time at which this packet was sent.
float localTime = (float)gameTime.TotalGameTime.TotalSeconds;
float timeDelta = localTime - packetSendTime;
// Maintain a rolling average of time deltas from the last 100 packets.
clockDelta.AddValue(timeDelta);
// The caller passed in an estimate of the average network latency, which
// is provided by the XNA Framework networking layer. But not all packets
// will take exactly that average amount of time to arrive! To handle
// varying latencies per packet, we include the send time as part of our
// packet data. By comparing this with a rolling average of the last 100
// send times, we can detect packets that are later or earlier than usual,
// even without having synchronized clocks between the two machines. We
// then adjust our average latency estimate by this per-packet deviation.
float timeDeviation = timeDelta - clockDelta.AverageValue;
latency += TimeSpan.FromSeconds(timeDeviation);
TimeSpan oneFrame = TimeSpan.FromSeconds(1.0 / 60.0);
// Apply prediction by updating our simulation state however
// many times is necessary to catch up to the current time.
while (latency >= oneFrame)
{
ApplyInputToPlayer(ref simulationState, _updatePacket.Input, (float)latency.TotalSeconds);
Update(ref simulationState, (float)latency.TotalSeconds);
latency -= oneFrame;
}
}
void Update()
{
if (_rb.IsSleeping())
{
_rb.WakeUp();
}
if (transform.position.y <= _minY)
{
ResetLocation();
return;
}
RaycastHit hit;
Ray ray = new Ray(transform.position, Vector3.down);
if (Physics.Raycast(ray, out hit, 1.05f))
{
_grounded = true;
}
float MoveH = Input.GetAxis("Move H " + _indexStr);
float MoveV = Input.GetAxis("Move V " + _indexStr);
Helpers.CleanupAxes(ref MoveH, ref MoveV);
if (ValveInteractingWith &&
Mathf.Abs(ValveInteractingWith.GetMostRecentStickRotationSpeed()) > 0.1f)
{
MoveH = 0;
MoveV = 0;
}
Vector3 translation = Vector3.zero;
if (_blockRiding)
{
translation = (_blockRiding.transform.position - _blockRidingPrevPos);
_blockRidingPrevPos = _blockRiding.transform.position;
}
Vector3 moveVec = new Vector3(MoveH, 0, MoveV);
if (moveVec.sqrMagnitude > 1.0f)
{
moveVec.Normalize();
}
moveVec *= MoveSpeed;
if (!_grounded)
{
moveVec *= 0.5f;
}
transform.Translate(translation + moveVec, Space.World);
if (moveVec.magnitude > 0.01f)
{
transform.rotation = Quaternion.RotateTowards(_pRot, Quaternion.LookRotation(moveVec.normalized), Time.deltaTime * _turnSpeed);
_pRot = transform.rotation;
}
else
{
transform.rotation = _pRot;
}
if (ValveInteractingWith)
{
_pAiming = false;
_trajectoryPlane.SetActive(false);
_averageInteractStickLength.Clear();
}
else
{
float horizontal = Input.GetAxis("Interact H " + _indexStr);
float vertical = Input.GetAxis("Interact V " + _indexStr);
Helpers.CleanupAxes(ref horizontal, ref vertical);
float minimumExtensionLength = 0.2f;
Vector2 stickExtension = new Vector2(horizontal, vertical);
float extensionLength = stickExtension.magnitude;
_averageInteractStickLength.AddValue(extensionLength);
if (extensionLength > minimumExtensionLength)
{
float currentAverageStickDir = _averageInteractDirection.CurrentAverage;
float currentStickDir = Mathf.Atan2(vertical, horizontal) + Mathf.PI;
if (_pAiming)
{
// When stick is closer to center weight less heavily
currentStickDir = Mathf.Lerp(currentAverageStickDir, currentStickDir, extensionLength);
_averageInteractDirection.AddValue(currentStickDir);
}
else
{
_trajectoryPlane.SetActive(true);
// This prevents the plane from always starting with a rotation of 0 rad
_averageInteractDirection.SetAllValues(currentStickDir);
}
_trajectoryPlaneMatOffset += _trajectoryPlaneOffsetSpeed * Time.deltaTime;
_trajectoryPlaneMesh.material.SetTextureOffset("_MainTex", new Vector2(0, -_trajectoryPlaneMatOffset));
float textureScaleV = Mathf.Lerp(0.1f, _maxProjectilePlaneTilingV, _averageInteractStickLength.CurrentAverage);
_trajectoryPlaneMesh.material.SetTextureScale("_MainTex", new Vector2(1.0f, textureScaleV));
_trajectoryPlane.transform.position = transform.position;
_trajectoryPlane.transform.rotation = Quaternion.LookRotation(
Quaternion.AngleAxis(Mathf.Rad2Deg * (3.0f * Mathf.PI / 2.0f - _averageInteractDirection.CurrentAverage - Mathf.PI), Vector3.up)
* Vector3.forward, Vector3.up);
Vector3 trajectoryPlaneScale = new Vector3(1.0f, 1.0f, _averageInteractStickLength.CurrentAverage);
_trajectoryPlane.transform.localScale = trajectoryPlaneScale;
_pAiming = true;
}
else
{
_trajectoryPlane.SetActive(false);
_pAiming = false;
// If the average is still high then the player quickly released the stick
// Treat as fire command
if (_averageInteractStickLength.CurrentAverage > 0.2f)
{
Vector3 forceDir = Quaternion.AngleAxis(Mathf.Rad2Deg * (3.0f * Mathf.PI / 2.0f - _averageInteractDirection.CurrentAverage - Mathf.PI), Vector3.up) * Vector3.forward;
forceDir.y += _projectileHeightAddition;
forceDir.Normalize();
Vector3 force = forceDir * _projectileForceMagnitude * _averageInteractStickLength.CurrentAverage;
Vector3 projectilePos = transform.position + forceDir * 0.6f;
GameObject projectileInstance = Instantiate(ProjectilePrefab, projectilePos, Quaternion.identity);
projectileInstance.GetComponent <Rigidbody>().AddForce(force);
AudioManager.Instance.PlaySoundRandomized("whoosh");
_averageInteractDirection.Clear();
_averageInteractStickLength.Clear();
}
}
}
}
