// Called back when the transform finishes
private void onFailComplete()
{
GameplayClockContainer.Stop();
FailOverlay.Retries = RestartCount;
FailOverlay.Show();
}
private void onFail()
{
decoupledClock.Stop();
HasFailed = true;
failOverlay.Retries = RestartCount;
failOverlay.Show();
}
private void onFail()
{
sourceClock.Stop();
Delay(500);
HasFailed = true;
failOverlay.Retries = RestartCount;
failOverlay.Show();
}
private bool onFail()
{
if (Beatmap.Value.Mods.Value.Any(m => !m.AllowFail))
{
return(false);
}
decoupledClock.Stop();
HasFailed = true;
failOverlay.Retries = RestartCount;
failOverlay.Show();
return(true);
}
private bool onFail()
{
if (Beatmap.Value.Mods.Value.OfType <IApplicableFailOverride>().Any(m => !m.AllowFail))
{
return(false);
}
adjustableClock.Stop();
HasFailed = true;
failOverlay.Retries = RestartCount;
failOverlay.Show();
return(true);
}
private bool onFail()
{
if (Mods.Value.OfType <IApplicableFailOverride>().Any(m => !m.AllowFail))
{
return(false);
}
GameplayClockContainer.Stop();
HasFailed = true;
// There is a chance that we could be in a paused state as the ruleset's internal clock (see FrameStabilityContainer)
// could process an extra frame after the GameplayClock is stopped.
// In such cases we want the fail state to precede a user triggered pause.
if (PauseOverlay.State == Visibility.Visible)
{
PauseOverlay.Hide();
}
FailOverlay.Retries = RestartCount;
FailOverlay.Show();
return(true);
}