| public static AlmostEquals ( this a, double b, double epsilon = DOUBLE_EPSILON ) : bool | ||
| a | this | |
| b | double | |
| epsilon | double | |
| Résultat | bool | |
public void TestContainerAutoSizeUpdatesWhenChildBecomesAlive()
{
Box box = null;
Container parent = null;
AddStep("create test", () =>
{
Child = parent = new Container
{
RemoveCompletedTransforms = false,
AutoSizeAxes = Axes.Both,
Child = box = new Box
{
Size = new Vector2(200),
LifetimeStart = double.MaxValue
}
};
});
AddStep("make child alive", () => box.LifetimeStart = double.MinValue);
AddAssert("parent has size 200", () => Precision.AlmostEquals(new Vector2(200), parent.DrawSize));
}
public void TestContentAnchors()
{
AddStep("Create scroll container with centre-left content", () =>
{
Add(scrollContainer = new BasicScrollContainer
{
Anchor = Anchor.Centre,
Origin = Anchor.Centre,
Size = new Vector2(300),
ScrollContent =
{
Anchor = Anchor.CentreLeft,
Origin = Anchor.CentreLeft,
},
Child = new Box {
Size = new Vector2(300, 400)
}
});
});
AddStep("Scroll to 0", () => scrollContainer.ScrollTo(0, false));
AddAssert("Content position at top", () => Precision.AlmostEquals(scrollContainer.ScreenSpaceDrawQuad.TopLeft, scrollContainer.ScrollContent.ScreenSpaceDrawQuad.TopLeft));
}
[TestCase(ScoringMode.Classic, HitResult.LargeBonus, HitResult.LargeBonus, 150)] // (0 * 1 * 300) * (1 + 0 / 25) * 3 * 50 (bonus points)
public void TestFourVariousResultsOneMiss(ScoringMode scoringMode, HitResult hitResult, HitResult maxResult, int expectedScore)
{
var minResult = new TestJudgement(hitResult).MinResult;
IBeatmap fourObjectBeatmap = new TestBeatmap(new RulesetInfo())
{
HitObjects = new List <HitObject>(Enumerable.Repeat(new TestHitObject(maxResult), 4))
};
scoreProcessor.Mode.Value = scoringMode;
scoreProcessor.ApplyBeatmap(fourObjectBeatmap);
for (int i = 0; i < 4; i++)
{
var judgementResult = new JudgementResult(fourObjectBeatmap.HitObjects[i], new Judgement())
{
Type = i == 2 ? minResult : hitResult
};
scoreProcessor.ApplyResult(judgementResult);
}
Assert.IsTrue(Precision.AlmostEquals(expectedScore, scoreProcessor.TotalScore.Value, 0.5));
}
public void TestSpinRateUnaffectedByMods(Type additionalModType)
{
var mods = new List <Mod> {
new OsuModSpunOut()
};
if (additionalModType != null)
{
mods.Add((Mod)Activator.CreateInstance(additionalModType));
}
CreateModTest(new ModTestData
{
Mods = mods,
Autoplay = false,
Beatmap = singleSpinnerBeatmap,
PassCondition = () =>
{
var counter = Player.ChildrenOfType <SpinnerSpmCounter>().SingleOrDefault();
return(counter != null && Precision.AlmostEquals(counter.SpinsPerMinute, 286, 1));
}
});
}
public void TestAutoSizeDoesNotConsiderRelativeSizeChildren(bool row)
{
Box relativeBox = null;
Box absoluteBox = null;
setSingleDimensionContent(() => new[]
{
new Drawable[]
{
relativeBox = new FillBox {
RelativeSizeAxes = Axes.Both
},
absoluteBox = new FillBox
{
RelativeSizeAxes = Axes.None,
Size = new Vector2(100)
}
}
}, new[] { new Dimension(GridSizeMode.AutoSize) }, row);
AddStep("resize absolute box", () => absoluteBox.Size = new Vector2(50));
AddAssert("relative box has length 50", () => Precision.AlmostEquals(row ? relativeBox.DrawHeight : relativeBox.DrawWidth, 50, 1));
}
public void Test3CellRowOrColumnDistributedXy(bool row)
{
FillBox[] boxes = new FillBox[3];
setSingleDimensionContent(() => new[]
{
new Drawable[] { boxes[0] = new FillBox(), boxes[1] = new FillBox(), boxes[2] = new FillBox() }
}, row: row);
for (int i = 0; i < 3; i++)
{
int local = i;
if (row)
{
AddAssert($"box {local} has correct size", () => Precision.AlmostEquals(boxes[local].DrawSize, new Vector2(grid.DrawWidth / 3f, grid.DrawHeight)));
}
else
{
AddAssert($"box {local} has correct size", () => Precision.AlmostEquals(boxes[local].DrawSize, new Vector2(grid.DrawWidth, grid.DrawHeight / 3f)));
}
}
}
public void TestEnableAndDisablePassword()
{
DrawableRoom drawableRoom = null;
Room room = null;
AddStep("create room", () => Child = drawableRoom = new DrawableRoom(room = new Room
{
Name = { Value = "Room with password" },
Status = { Value = new RoomStatusOpen() },
Category = { Value = RoomCategory.Realtime },
})
{
MatchingFilter = true
});
AddAssert("password icon hidden", () => Precision.AlmostEquals(0, drawableRoom.ChildrenOfType <DrawableRoom.PasswordProtectedIcon>().Single().Alpha));
AddStep("set password", () => room.Password.Value = "password");
AddAssert("password icon visible", () => Precision.AlmostEquals(1, drawableRoom.ChildrenOfType <DrawableRoom.PasswordProtectedIcon>().Single().Alpha));
AddStep("unset password", () => room.Password.Value = string.Empty);
AddAssert("password icon hidden", () => Precision.AlmostEquals(0, drawableRoom.ChildrenOfType <DrawableRoom.PasswordProtectedIcon>().Single().Alpha));
}
protected override void Update()
{
base.Update();
var elapsedFrameTime = Clock.ElapsedFrameTime;
if (Math.Abs(verticalSpeed) > max_vertical_speed)
{
verticalSpeed = Math.Sign(verticalSpeed) * max_vertical_speed;
}
if (Precision.AlmostEquals(verticalSpeed, 0, 0.0001))
{
verticalSpeed = 0;
}
var adjustedVerticalDistance = verticalSpeed * (elapsedFrameTime / 20);
Y -= (float)adjustedVerticalDistance;
X += (float)(speedVector.X * (elapsedFrameTime / 20));
verticalSpeed -= gravity * (elapsedFrameTime / 20);
}
public void TestBypassAutoSizeAxes()
{
const float autosize_height = 300;
Container autoSizeContainer = null;
Box boxSizeReference = null;
AddStep("init", () =>
{
Child = autoSizeContainer = new Container
{
Anchor = Anchor.Centre,
Origin = Anchor.Centre,
Width = 300,
AutoSizeAxes = Axes.Y,
Children = new Drawable[]
{
new Box
{
Colour = Color4.Green,
RelativeSizeAxes = Axes.Both
},
boxSizeReference = new Box
{
RelativeSizeAxes = Axes.X,
Height = autosize_height,
Colour = Color4.Red.Opacity(0.2f),
}
}
};
});
AddAssert($"height = {autosize_height}", () => Precision.AlmostEquals(autosize_height, autoSizeContainer.DrawHeight));
AddStep("bypass y", () => boxSizeReference.BypassAutoSizeAxes = Axes.Y);
AddAssert("height = 0", () => Precision.AlmostEquals(0, autoSizeContainer.DrawHeight));
AddStep("bypass none", () => boxSizeReference.BypassAutoSizeAxes = Axes.None);
AddAssert($"height = {autosize_height}", () => Precision.AlmostEquals(autosize_height, autoSizeContainer.DrawHeight));
}
public void TestRowSize()
{
AddStep("set content", () =>
{
table.Content = createContent(2, 2);
table.RowSize = new Dimension(GridSizeMode.Absolute, 30f);
});
AddAssert("all row size = 30", () => testRows(30));
AddStep("add headers", () => table.Columns = new[]
{
new TableColumn("Header 1"),
new TableColumn("Header 2"),
new TableColumn("Header 3"),
});
AddAssert("all row size = 30", () => testRows(30));
AddStep("change row size", () => table.RowSize = new Dimension(GridSizeMode.Absolute, 50));
AddAssert("all row size = 50", () => testRows(50));
AddStep("change content", () => table.Content = createContent(4, 4));
AddAssert("all row size = 50", () => testRows(50));
AddStep("remove custom row size", () => table.RowSize = null);
AddAssert("all row size = distributed", () => testRows(table.DrawHeight / 5f));
bool testRows(float expectedHeight)
{
for (int row = 0; row < getGrid().Content.Count; row++)
{
if (!Precision.AlmostEquals(expectedHeight, getGrid().Content[row][0].Parent.DrawHeight))
{
return(false);
}
}
return(true);
}
}
public void TestSeekPerformsInGameplayTime(
[Values(1.0, 0.5, 2.0)] double clockRate,
[Values(0.0, 200.0, -200.0)] double userOffset,
[Values(false, true)] bool whileStopped,
[Values(false, true)] bool setAudioOffsetBeforeConstruction)
{
ClockBackedTestWorkingBeatmap working = null;
GameplayClockContainer gameplayClockContainer = null;
if (setAudioOffsetBeforeConstruction)
{
AddStep($"preset audio offset to {userOffset}", () => localConfig.SetValue(OsuSetting.AudioOffset, userOffset));
}
AddStep("create container", () =>
{
working = new ClockBackedTestWorkingBeatmap(new OsuRuleset().RulesetInfo, new FramedClock(new ManualClock()), Audio);
working.LoadTrack();
Child = gameplayClockContainer = new MasterGameplayClockContainer(working, 0);
gameplayClockContainer.Reset(startClock: !whileStopped);
});
AddStep($"set clock rate to {clockRate}", () => working.Track.AddAdjustment(AdjustableProperty.Frequency, new BindableDouble(clockRate)));
if (!setAudioOffsetBeforeConstruction)
{
AddStep($"set audio offset to {userOffset}", () => localConfig.SetValue(OsuSetting.AudioOffset, userOffset));
}
AddStep("seek to 2500", () => gameplayClockContainer.Seek(2500));
AddAssert("gameplay clock time = 2500", () => Precision.AlmostEquals(gameplayClockContainer.CurrentTime, 2500, 10f));
AddStep("seek to 10000", () => gameplayClockContainer.Seek(10000));
AddAssert("gameplay clock time = 10000", () => Precision.AlmostEquals(gameplayClockContainer.CurrentTime, 10000, 10f));
}
public void TestShowHideStatistics()
{
TestResultsScreen screen = null;
AddStep("load results", () => Child = new TestResultsContainer(screen = createResultsScreen()));
AddUntilStep("wait for load", () => this.ChildrenOfType <ScorePanelList>().Single().AllPanelsVisible);
AddStep("click expanded panel", () =>
{
var expandedPanel = this.ChildrenOfType <ScorePanel>().Single(p => p.State == PanelState.Expanded);
InputManager.MoveMouseTo(expandedPanel);
InputManager.Click(MouseButton.Left);
});
AddAssert("statistics shown", () => this.ChildrenOfType <StatisticsPanel>().Single().State.Value == Visibility.Visible);
AddUntilStep("expanded panel at the left of the screen", () =>
{
var expandedPanel = this.ChildrenOfType <ScorePanel>().Single(p => p.State == PanelState.Expanded);
return(expandedPanel.ScreenSpaceDrawQuad.TopLeft.X - screen.ScreenSpaceDrawQuad.TopLeft.X < 150);
});
AddStep("click expanded panel", () =>
{
var expandedPanel = this.ChildrenOfType <ScorePanel>().Single(p => p.State == PanelState.Expanded);
InputManager.MoveMouseTo(expandedPanel);
InputManager.Click(MouseButton.Left);
});
AddAssert("statistics hidden", () => this.ChildrenOfType <StatisticsPanel>().Single().State.Value == Visibility.Hidden);
AddUntilStep("expanded panel in centre of screen", () =>
{
var expandedPanel = this.ChildrenOfType <ScorePanel>().Single(p => p.State == PanelState.Expanded);
return(Precision.AlmostEquals(expandedPanel.ScreenSpaceDrawQuad.Centre.X, screen.ScreenSpaceDrawQuad.Centre.X, 1));
});
}
/// <summary>
/// Start a sequence of <see cref="Transform"/>s with a (cumulative) relative delay applied.
/// </summary>
/// <param name="delay">The offset in milliseconds from current time. Note that this stacks with other nested sequences.</param>
/// <param name="recursive">Whether this should be applied to all children. True by default.</param>
/// <returns>An <see cref="InvokeOnDisposal"/> to be used in a using() statement.</returns>
public IDisposable BeginDelayedSequence(double delay, bool recursive = true)
{
EnsureTransformMutationAllowed();
if (delay == 0)
{
return(null);
}
AddDelay(delay, recursive);
double newTransformDelay = TransformDelay;
return(new ValueInvokeOnDisposal <DelayedSequenceSender>(new DelayedSequenceSender(this, delay, recursive, newTransformDelay), sender =>
{
if (!Precision.AlmostEquals(sender.NewTransformDelay, sender.Transformable.TransformDelay))
{
throw new InvalidOperationException(
$"{nameof(sender.Transformable.TransformStartTime)} at the end of delayed sequence is not the same as at the beginning, but should be. " +
$"(begin={sender.NewTransformDelay} end={sender.Transformable.TransformDelay})");
}
AddDelay(-sender.Delay, sender.Recursive);
}));
}
public void ScaleSequence()
{
boxTest(box =>
{
box.Scale = Vector2.One;
box.ScaleTo(0.75f, interval).Then()
.ScaleTo(0.5f, interval).Then()
.ScaleTo(0.25f, interval).Then()
.ScaleTo(0, interval);
});
int i = 0;
checkAtTime(interval * ++i, box => Precision.AlmostEquals(box.Scale.X, 0.75f));
checkAtTime(interval * ++i, box => Precision.AlmostEquals(box.Scale.X, 0.5f));
checkAtTime(interval * ++i, box => Precision.AlmostEquals(box.Scale.X, 0.25f));
checkAtTime(interval * ++i, box => Precision.AlmostEquals(box.Scale.X, 0f));
checkAtTime(interval * (i -= 2), box => Precision.AlmostEquals(box.Scale.X, 0.5f));
checkAtTime(interval * --i, box => Precision.AlmostEquals(box.Scale.X, 0.75f));
AddAssert("check transform count", () => box.Transforms.Count == 4);
}
public void TestSpinnerMiddleRewindingRotation()
{
double finalAbsoluteDiscRotation = 0, finalRelativeDiscRotation = 0, finalSpinnerSymbolRotation = 0;
addSeekStep(5000);
AddStep("retrieve disc relative rotation", () => finalRelativeDiscRotation = drawableSpinner.Disc.Rotation);
AddStep("retrieve disc absolute rotation", () => finalAbsoluteDiscRotation = drawableSpinner.Disc.CumulativeRotation);
AddStep("retrieve spinner symbol rotation", () => finalSpinnerSymbolRotation = spinnerSymbol.Rotation);
addSeekStep(2500);
AddUntilStep("disc rotation rewound",
// we want to make sure that the rotation at time 2500 is in the same direction as at time 5000, but about half-way in.
() => Precision.AlmostEquals(drawableSpinner.Disc.Rotation, finalRelativeDiscRotation / 2, 100));
AddUntilStep("symbol rotation rewound",
() => Precision.AlmostEquals(spinnerSymbol.Rotation, finalSpinnerSymbolRotation / 2, 100));
addSeekStep(5000);
AddAssert("is disc rotation almost same",
() => Precision.AlmostEquals(drawableSpinner.Disc.Rotation, finalRelativeDiscRotation, 100));
AddAssert("is symbol rotation almost same",
() => Precision.AlmostEquals(spinnerSymbol.Rotation, finalSpinnerSymbolRotation, 100));
AddAssert("is disc rotation absolute almost same",
() => Precision.AlmostEquals(drawableSpinner.Disc.CumulativeRotation, finalAbsoluteDiscRotation, 100));
}
public OsuTKJoystickState(JoystickDevice device)
{
// Populate axes
for (int i = 0; i < JoystickDevice.MAX_AXES; i++)
{
var value = device.RawState.GetAxis(i);
if (!Precision.AlmostEquals(value, 0, device.DefaultDeadzones?[i] ?? Precision.FLOAT_EPSILON))
{
Axes.Add(new JoystickAxis(i, value));
}
}
// Populate normal buttons
for (int i = 0; i < JoystickDevice.MAX_BUTTONS; i++)
{
if (device.RawState.GetButton(i) == ButtonState.Pressed)
{
Buttons.SetPressed(JoystickButton.FirstButton + i, true);
}
}
// Populate hat buttons
for (int i = 0; i < JoystickDevice.MAX_HATS; i++)
{
foreach (var hatButton in getHatButtons(device, i))
{
Buttons.SetPressed(hatButton, true);
}
}
// Populate axis buttons (each axis has two buttons)
foreach (var axis in Axes)
{
Buttons.SetPressed((axis.Value < 0 ? JoystickButton.FirstAxisNegative : JoystickButton.FirstAxisPositive) + axis.Axis, true);
}
}
protected override void Update()
{
base.Update();
// position updates should not occur if the item is filtered away.
// this avoids panels flying across the screen only to be eventually off-screen or faded out.
if (!Item.Visible)
{
return;
}
float targetY = Item.CarouselYPosition;
if (Precision.AlmostEquals(targetY, Y))
{
Y = targetY;
}
else
{
// algorithm for this is taken from ScrollContainer.
// while it doesn't necessarily need to match 1:1, as we are emulating scroll in some cases this feels most correct.
Y = (float)Interpolation.Lerp(targetY, Y, Math.Exp(-0.01 * Time.Elapsed));
}
}
private void assertHue(float hue, float tolerance = 0.005f)
{
AddAssert($"hue selector has {hue}", () => Precision.AlmostEquals(colourPicker.HueControl.Hue.Value, hue, tolerance));
AddAssert($"saturation/value selector has {hue}", () => Precision.AlmostEquals(colourPicker.SaturationValueControl.Hue.Value, hue, tolerance));
}
private void assertSaturationAndValue(float saturation, float value, float tolerance = 0.005f)
{
AddAssert($"saturation is {saturation}", () => Precision.AlmostEquals(colourPicker.SaturationValueControl.Saturation.Value, saturation, tolerance));
AddAssert($"value is {value}", () => Precision.AlmostEquals(colourPicker.SaturationValueControl.Value.Value, value, tolerance));
}
private void assertSnappedDistance(float expectedDistance) => AddAssert($"snap distance = {expectedDistance}", () =>
{
Vector2 snappedPosition = grid.GetSnappedPosition(grid.ToLocalSpace(InputManager.CurrentState.Mouse.Position)).position;
return(Precision.AlmostEquals(expectedDistance, Vector2.Distance(snappedPosition, grid_position)));
});
/// <summary> /// Checks if a cursor is at the current inputmanager screen position. /// </summary> /// <param name="cursorContainer">The cursor to check.</param> private bool checkAtMouse(CursorContainer cursorContainer) => Precision.AlmostEquals(InputManager.CurrentState.Mouse.NativeState.Position, cursorContainer.ToScreenSpace(cursorContainer.ActiveCursor.DrawPosition));
private void pressAndCheckTime(Key key, double expectedTime)
{
AddStep($"press {key}", () => InputManager.Key(key));
AddUntilStep($"time is {expectedTime}", () => Precision.AlmostEquals(expectedTime, EditorClock.CurrentTime, 1));
}
public override HitObject Parse(string text)
{
try
{
string[] split = text.Split(',');
Vector2 pos = new Vector2((int)Convert.ToSingle(split[0], CultureInfo.InvariantCulture), (int)Convert.ToSingle(split[1], CultureInfo.InvariantCulture));
ConvertHitObjectType type = (ConvertHitObjectType)int.Parse(split[3]);
int comboOffset = (int)(type & ConvertHitObjectType.ComboOffset) >> 4;
type &= ~ConvertHitObjectType.ComboOffset;
bool combo = type.HasFlag(ConvertHitObjectType.NewCombo);
type &= ~ConvertHitObjectType.NewCombo;
var soundType = (LegacySoundType)int.Parse(split[4]);
var bankInfo = new SampleBankInfo();
HitObject result = null;
if (type.HasFlag(ConvertHitObjectType.Circle))
{
result = CreateHit(pos, combo, comboOffset);
if (split.Length > 5)
{
readCustomSampleBanks(split[5], bankInfo);
}
}
else if (type.HasFlag(ConvertHitObjectType.Slider))
{
PathType pathType = PathType.Catmull;
double length = 0;
string[] pointSplit = split[5].Split('|');
int pointCount = 1;
foreach (var t in pointSplit)
{
if (t.Length > 1)
{
pointCount++;
}
}
var points = new Vector2[pointCount];
int pointIndex = 1;
foreach (string t in pointSplit)
{
if (t.Length == 1)
{
switch (t)
{
case @"C":
pathType = PathType.Catmull;
break;
case @"B":
pathType = PathType.Bezier;
break;
case @"L":
pathType = PathType.Linear;
break;
case @"P":
pathType = PathType.PerfectCurve;
break;
}
continue;
}
string[] temp = t.Split(':');
points[pointIndex++] = new Vector2((int)Convert.ToDouble(temp[0], CultureInfo.InvariantCulture), (int)Convert.ToDouble(temp[1], CultureInfo.InvariantCulture)) - pos;
}
// osu-stable special-cased colinear perfect curves to a CurveType.Linear
bool isLinear(Vector2[] p) => Precision.AlmostEquals(0, (p[1].Y - p[0].Y) * (p[2].X - p[0].X) - (p[1].X - p[0].X) * (p[2].Y - p[0].Y));
if (points.Length == 3 && pathType == PathType.PerfectCurve && isLinear(points))
{
pathType = PathType.Linear;
}
int repeatCount = Convert.ToInt32(split[6], CultureInfo.InvariantCulture);
if (repeatCount > 9000)
{
throw new ArgumentOutOfRangeException(nameof(repeatCount), @"Repeat count is way too high");
}
// osu-stable treated the first span of the slider as a repeat, but no repeats are happening
repeatCount = Math.Max(0, repeatCount - 1);
if (split.Length > 7)
{
length = Convert.ToDouble(split[7], CultureInfo.InvariantCulture);
}
if (split.Length > 10)
{
readCustomSampleBanks(split[10], bankInfo);
}
// One node for each repeat + the start and end nodes
int nodes = repeatCount + 2;
// Populate node sample bank infos with the default hit object sample bank
var nodeBankInfos = new List <SampleBankInfo>();
for (int i = 0; i < nodes; i++)
{
nodeBankInfos.Add(bankInfo.Clone());
}
// Read any per-node sample banks
if (split.Length > 9 && split[9].Length > 0)
{
string[] sets = split[9].Split('|');
for (int i = 0; i < nodes; i++)
{
if (i >= sets.Length)
{
break;
}
SampleBankInfo info = nodeBankInfos[i];
readCustomSampleBanks(sets[i], info);
}
}
// Populate node sound types with the default hit object sound type
var nodeSoundTypes = new List <LegacySoundType>();
for (int i = 0; i < nodes; i++)
{
nodeSoundTypes.Add(soundType);
}
// Read any per-node sound types
if (split.Length > 8 && split[8].Length > 0)
{
string[] adds = split[8].Split('|');
for (int i = 0; i < nodes; i++)
{
if (i >= adds.Length)
{
break;
}
int sound;
int.TryParse(adds[i], out sound);
nodeSoundTypes[i] = (LegacySoundType)sound;
}
}
// Generate the final per-node samples
var nodeSamples = new List <List <SampleInfo> >(nodes);
for (int i = 0; i < nodes; i++)
{
nodeSamples.Add(convertSoundType(nodeSoundTypes[i], nodeBankInfos[i]));
}
result = CreateSlider(pos, combo, comboOffset, points, length, pathType, repeatCount, nodeSamples);
// The samples are played when the slider ends, which is the last node
result.Samples = nodeSamples[nodeSamples.Count - 1];
}
else if (type.HasFlag(ConvertHitObjectType.Spinner))
{
result = CreateSpinner(new Vector2(512, 384) / 2, combo, comboOffset, Convert.ToDouble(split[5], CultureInfo.InvariantCulture) + Offset);
if (split.Length > 6)
{
readCustomSampleBanks(split[6], bankInfo);
}
}
else if (type.HasFlag(ConvertHitObjectType.Hold))
{
// Note: Hold is generated by BMS converts
double endTime = Convert.ToDouble(split[2], CultureInfo.InvariantCulture);
if (split.Length > 5 && !string.IsNullOrEmpty(split[5]))
{
string[] ss = split[5].Split(':');
endTime = Convert.ToDouble(ss[0], CultureInfo.InvariantCulture);
readCustomSampleBanks(string.Join(":", ss.Skip(1)), bankInfo);
}
result = CreateHold(pos, combo, comboOffset, endTime + Offset);
}
if (result == null)
{
Logger.Log($"Unknown hit object type: {type}. Skipped.", level: LogLevel.Error);
return(null);
}
result.StartTime = Convert.ToDouble(split[2], CultureInfo.InvariantCulture) + Offset;
if (result.Samples.Count == 0)
{
result.Samples = convertSoundType(soundType, bankInfo);
}
FirstObject = false;
return(result);
}
catch (FormatException)
{
throw new FormatException("One or more hit objects were malformed.");
}
}
private void check(float ratio) =>
AddAssert($"Check @{ratio}", () => Precision.AlmostEquals(autoSizeContainer.Size, new Vector2(changed_value * ratio)) &&
Precision.AlmostEquals(box2.Position, new Vector2(changed_value * (1 - ratio), changed_value * ratio)));
private void addSeekStep(double time)
{
AddStep($"seek to {time}", () => track.Seek(time));
AddUntilStep("wait for seek to finish", () => Precision.AlmostEquals(time, ((TestPlayer)Player).DrawableRuleset.FrameStableClock.CurrentTime, 100));
}
private static bool almostEquals(double value1, double value2)
{
return(Precision.AlmostEquals(value1, value2, timing_precision));
}
public void TestSliderMultiplier(float multiplier, float expectedSpacing)
{
AddStep($"set speed multiplier = {multiplier}", () => editorBeatmap.BeatmapInfo.BaseDifficulty.SliderMultiplier = multiplier);
createGrid();
AddAssert($"spacing = {expectedSpacing}", () => Precision.AlmostEquals(expectedSpacing, grid.DistanceSpacing));
}
private void assertMenuInCentre(Func <Drawable> getBoxFunc)
=> AddAssert("menu in centre of box", () => Precision.AlmostEquals(contextMenuContainer.CurrentMenu.ScreenSpaceDrawQuad.TopLeft, getBoxFunc().ScreenSpaceDrawQuad.Centre));
private void assertPosition(int index, float relativeY) => AddAssert($"hitobject {index} at {relativeY}",
() => Precision.AlmostEquals(drawableRuleset.Playfield.AllHitObjects.ElementAt(index).DrawPosition.Y, drawableRuleset.Playfield.HitObjectContainer.DrawHeight * relativeY));
/// <summary>
/// Creates a piecewise-linear approximation of a circular arc curve.
/// </summary>
/// <returns>A list of vectors representing the piecewise-linear approximation.</returns>
public static List <Vector2> ApproximateCircularArc(List <Vector2> controlPoints)
{
Vector2 a = controlPoints[0];
Vector2 b = controlPoints[1];
Vector2 c = controlPoints[2];
double aSq = (b - c).LengthSquared;
double bSq = (a - c).LengthSquared;
double cSq = (a - b).LengthSquared;
// If we have a degenerate triangle where a side-length is almost zero, then give up and fall
// back to a more numerically stable method.
if (Precision.AlmostEquals(aSq, 0) || Precision.AlmostEquals(bSq, 0) || Precision.AlmostEquals(cSq, 0))
{
return(new List <Vector2>());
}
double s = aSq * (bSq + cSq - aSq);
double t = bSq * (aSq + cSq - bSq);
double u = cSq * (aSq + bSq - cSq);
double sum = s + t + u;
// If we have a degenerate triangle with an almost-zero size, then give up and fall
// back to a more numerically stable method.
if (Precision.AlmostEquals(sum, 0))
{
return(new List <Vector2>());
}
Vector2 centre = (s * a + t * b + u * c) / sum;
Vector2 dA = a - centre;
Vector2 dC = c - centre;
double r = dA.Length;
double thetaStart = Math.Atan2(dA.Y, dA.X);
double thetaEnd = Math.Atan2(dC.Y, dC.X);
while (thetaEnd < thetaStart)
{
thetaEnd += 2 * Math.PI;
}
double dir = 1;
double thetaRange = thetaEnd - thetaStart;
// Decide in which direction to draw the circle, depending on which side of
// AC B lies.
Vector2 orthoAtoC = c - a;
orthoAtoC = new Vector2(orthoAtoC.Y, -orthoAtoC.X);
if (Vector2.Dot(orthoAtoC, b - a) < 0)
{
dir = -dir;
thetaRange = 2 * Math.PI - thetaRange;
}
// We select the amount of points for the approximation by requiring the discrete curvature
// to be smaller than the provided tolerance. The exact angle required to meet the tolerance
// is: 2 * Math.Acos(1 - TOLERANCE / r)
// The special case is required for extremely short sliders where the radius is smaller than
// the tolerance. This is a pathological rather than a realistic case.
int amountPoints = 2 * r <= circular_arc_tolerance ? 2 : Math.Max(2, (int)Math.Ceiling(thetaRange / (2 * Math.Acos(1 - circular_arc_tolerance / r))));
List <Vector2> output = new List <Vector2>(amountPoints);
for (int i = 0; i < amountPoints; ++i)
{
double fract = (double)i / (amountPoints - 1);
double theta = thetaStart + dir * fract * thetaRange;
Vector2 o = new Vector2(Math.Cos(theta), Math.Sin(theta)) * r;
output.Add(centre + o);
}
return(output);
}
