public FSA(string name, IEnumerable <FSATransition <TValue> > transitions, IEnumerable <int> q0, IEnumerable <int> f)
{
Name = name.ThrowIfEmpty();
Q0 = q0.ToHashSet();
F = f.ToHashSet();
#region Speedup
foreach (var t in transitions)
{
OrderedSet <FSATransition <TValue> > predics;
if (!_lookup.TryGetValue(t.BeginState, out predics))
{
predics = new OrderedSet <FSATransition <TValue> >();
_lookup[t.BeginState] = predics;
}
predics.Add(t);
if (!PredicateEdgeBase <TValue> .IsEpsilon(t.Condition))
{
_sigma.Add(t.Condition);
}
}
StateCount = Q.Count();
#endregion
}
public void DirectRightAndLeftCheckExistingItem()
{
OrderedSet <int> tree = new OrderedSet <int>();
tree.Add(10);
tree.Add(-10);
tree.Add(20);
tree.Add(-20);
OrderedSet <int> expectedOutputTree = new OrderedSet <int>();
expectedOutputTree.Add(10);
expectedOutputTree.Add(-10);
expectedOutputTree.Add(20);
expectedOutputTree.Add(-20);
var outputRL = tree.DirectRightAndLeft(10);
var expectedOutputRL = new KeyValuePair <int, int>(20, -10);
Assert.AreEqual(outputRL.Key, expectedOutputRL.Key, "Right element is incorrect");
Assert.AreEqual(outputRL.Value, expectedOutputRL.Value, "Left element is incorrect");
Assert.AreEqual(expectedOutputTree.Count, tree.Count, "Tree size is incorrect!");
for (int i = 0; i < expectedOutputTree.Count; i++)
{
Assert.AreEqual(expectedOutputTree[i], tree[i], "Tree Element at index " + i + " is incorrect");
}
}
private void Tock (Object state)
{
List<IMinion> toDo = new List<IMinion> ();
lock (this.capsules) {
long t = tick++;
if (capsules.Count == 0)
return;
ICapsule c = capsules.GetFirst ();
IMinion m = c.GetReadiedMinion (t);
while (m != null) {
Console.WriteLine ("{0}\t Playing: {1}", t, m);
capsules.Remove (c);
if (t == 24) {
Console.WriteLine ("----- Popped: {0} {1}", c.GetTicksToStart (), capsules);
}
if (!c.CanDispose ()) {
// Sorted to the new start tick
capsules.Add (c);
}
if (t == 24) {
Console.WriteLine ("------ Reorg: {0} {1}", c.GetTicksToStart (), capsules);
}
toDo.Add (m);
if (capsules.Count == 0)
break;
c = capsules.GetFirst ();
m = c.GetReadiedMinion (t);
}
}
//taskMaster.Invoke (toDo);
}
static void Main(string[] args)
{
var set = new OrderedSet<int>();
set.Add(17);
set.Add(9);
set.Add(12);
set.Add(19);
set.Add(6);
set.Add(25);
foreach (var item in set)
{
Console.WriteLine(item);
}
Console.WriteLine();
set.Remove(9);
foreach (var item in set)
{
Console.WriteLine(item);
}
Console.WriteLine(set.Contains(9));
Console.WriteLine();
set.Add(25);
set.Add(25);
set.Add(25);
set.Add(25);
foreach (var item in set)
{
Console.WriteLine(item);
}
}
public bool Initialize(Node _start, Node _goal)
{
if (!NodeManager.Instance.Contains(_start, _goal))
{
return(false);
}
start = _start;
goal = _goal;
open.Clear();
closed.Clear();
foreach (List <Node> list in map)
{
foreach (Node node in list)
{
if (node != null)
{
node.g = float.MaxValue;
node.h = Heuristic(node, goal);
node.parent = null;
}
}
}
start.g = 0f;
start.CalcF();
open.Add(start);
return(true);
}
public ICollection <ConfigItem> Get(ConfigurationType typesToReturn)
{
lock (_lockObject)
{
OrderedSet <ConfigItem> list = new OrderedSet <ConfigItem>();
foreach (ConfigItem item in _configItems.Values)
{
if (item.IsEditable)
{
if ((typesToReturn & ConfigurationType.Global) == ConfigurationType.Global)
{
list.Add(new ConfigItem(item));
}
}
else
{
if ((typesToReturn & ConfigurationType.System) == ConfigurationType.System)
{
list.Add(new ConfigItem(item));
}
}
}
return(list);
}
}
private void HandleNeighbour(Face neighbour)
{
if (neighbour == null || (neighbour.AreaMask & agentAreaMask) == 0 || closeSet.Contains(neighbour))
{
return;
}
var neighbourCenter = neighbour.CalculateCenter();
float neighbourDistance = Vector3.Distance(currentCenter, neighbourCenter);
float neighbourDistanceCostBonus = (neighbour.Weight * neighbourDistance - neighbourDistance) / 2;
float possibleGCost = current.gCost + neighbourDistance + neighbourDistanceCostBonus;
var neighbourSetElement = openSet.BruteFind((e) => e.face == neighbour);
if (neighbourSetElement == null)
{
openSet.Add(new FaceStarUnit(neighbour, current, possibleGCost, Vector3.Distance(neighbourCenter, endCenter) + neighbourDistanceCostBonus));
}
else if (possibleGCost < neighbourSetElement.gCost)
{
openSet.Remove(neighbourSetElement);
neighbourSetElement.Update(current, possibleGCost, Vector3.Distance(neighbourCenter, endCenter) + neighbourDistanceCostBonus);
openSet.Add(neighbourSetElement);
}
}
public void DirectRightAndLeftCheckExistingObject()
{
OrderedSet <ClassTester> tree = new OrderedSet <ClassTester>((x, y) => { return(x.compareByValue.CompareTo(y.compareByValue)); });
tree.Add(new ClassTester(10, 2));
tree.Add(new ClassTester(-10, 1));
tree.Add(new ClassTester(20, 3));
tree.Add(new ClassTester(-20, 0));
OrderedSet <ClassTester> expectedOutputTree = new OrderedSet <ClassTester>((x, y) => { return(x.compareByValue.CompareTo(y.compareByValue)); });
expectedOutputTree.Add(new ClassTester(10, 2));
expectedOutputTree.Add(new ClassTester(-10, 1));
expectedOutputTree.Add(new ClassTester(20, 3));
expectedOutputTree.Add(new ClassTester(-20, 0));
var outputRL = tree.DirectRightAndLeft(new ClassTester(-20, 2));
var expectedOutputRL = new KeyValuePair <ClassTester, ClassTester>(new ClassTester(-10, 1), null);
Assert.AreEqual(outputRL.Key.compareByValue, expectedOutputRL.Key.compareByValue, "Right element is incorrect");
Assert.AreEqual(outputRL.Key.otherProperties, expectedOutputRL.Key.otherProperties, "Right element is incorrect");
Assert.AreEqual(outputRL.Value, expectedOutputRL.Value, "Left element is incorrect");
Assert.AreEqual(outputRL.Value, expectedOutputRL.Value, "Left element is incorrect");
Assert.AreEqual(expectedOutputTree.Count, tree.Count, "Tree size is incorrect!");
for (int i = 0; i < expectedOutputTree.Count; i++)
{
Assert.AreEqual(expectedOutputTree[i], tree[i], "Tree Element at index " + i + " is incorrect");
}
}
public void initDrones(int num)
{
for (int i = 0; i < num; i++)
{
Drone newDrone = new Drone(i, parkinglot[i]);
dronesDict.Add(i, newDrone);
availableDronesId.Add(i);
}
}
public void MaximumTest()
{
OrderedSet <Number> s = new OrderedSet <Number>();
s.Add(new Number(2));
s.Add(new Number(4));
s.Add(new Number(7));
Assert.IsTrue(s.Maximum().Equals(new Number(7)));
}
public void OrderedSet_Add_ReturnsFalseIfItemExists()
{
const string item = "foo";
var set = new OrderedSet <string>();
set.Add(item);
Assert.False(set.Add(item));
}
public void TrimTwo()
{
var set = new OrderedSet<Story>();
var story = new Story(new FrontpageItem { Title = "title", Link = "blah" }) { DisplayTime = DateTime.Now};
var story2 = new Story(new FrontpageItem { Title = "title2", Link = "blah" }) {DisplayTime = DateTime.MinValue};
set.Add(story);
set.Add(story2);
set.Trim(2);
Assert.AreEqual(2, set.Count);
}
public void Trim()
{
var set = new OrderedSet<Story>();
var story = new Story(new FrontpageItem { Title = "title", Link = "blah", Description = "shouldnt matter" }) { DisplayTime = DateTime.Now};
var story2 = new Story(new FrontpageItem { Title = "title", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
set.Add(story);
set.Add(story2);
set.Trim(1);
Assert.AreEqual(1, set.Count);
Assert.AreEqual(story2, set[0]);
}
public void OrderedSetTest()
{
var set = new OrderedSet<Story>();
var story = new Story(new FrontpageItem { Title = "title", Link = "blah", Description = "shouldnt matter" });
var story2 = new Story(new FrontpageItem { Title = "title", Link = "blah", Description = "diff but irrelevant" });
set.Add(story);
set.Add(story2);
set.RemoveLast();
Assert.AreEqual(1, set.Count);
Assert.AreEqual(story2, set[0]);
}
private static IEnumerable <FPoint> CreateEventList(IEnumerable <Segment> mergedSegments)
{
OrderedSet <FPoint> eventList = new OrderedSet <FPoint>();
foreach (Segment segment in mergedSegments)
{
eventList.Add(segment.startPt);
eventList.Add(segment.endPt);
}
return(eventList);
}
public void DuplicateObjectTest()
{
OrderedSet<Person> actual = new OrderedSet<Person>();
Person p1 = new Person { FirstName = "Granville", LastName = "Barnett" };
Person p2 = new Person { FirstName = "Granville", LastName = "Barnett" };
actual.Add(p1);
actual.Add(p2);
Assert.AreEqual(1, actual.Count);
}
public void Set(K key, V value)
{
if (capacity > dict.Count)
{
if (!dict.ContainsKey(key))
{
dict.Add(key, value);
}
else
{
dict[key] = value;
Pair <K, V> item = set.Where(x => x.Key.CompareTo(key) == 0).First();
set.Remove(item);
}
set.Add(new Pair <K, V>(key, value, number));
number++;
return;
}
if (dict.ContainsKey(key))
{
Pair <K, V> item = set.Where(x => x.Key.CompareTo(key) == 0).First();
set.Remove(item);
dict[key] = value;
set.Add(new Pair <K, V>(key, value, number++));
return;
}
else
{
var pair = set.RemoveLast();
dict.Remove(pair.Key);
if (!dict.ContainsKey(key))
{
dict.Add(key, value);
}
else
{
dict[key] = value;
}
set.Add(new Pair <K, V>(key, value, number++));
}
}
public void initDrones(int num)
{
for (int i = 0; i < num; i++)
{
// Debug.Log(parkinglot[parkingInterval * i]);
Drone newDrone = new Drone(i, parkinglot[i]);
newDrone.EnableArrows = this.EnableArrows;
newDrone.gameObjectPointer.GetComponent <DroneProperties>().EnableLineRender = this.EnableLineRender;
dronesDict.Add(i, newDrone);
availableDronesId.Add(i);
}
}
private void initializeEvents(OrderedSet <Event> Q)
{
for (int i = 0; i < segments.Count; ++i)
{
if (segments[i].Start.X > segments[i].End.X)
{
swap(segments[i].Start, segments[i].End);
}
Q.Add(new Event(segments[i].End, PointType.End, i, null, null));
Q.Add(new Event(segments[i].Start, PointType.Start, i, null, null));
}
}
private void handleEvent(Event curEvent, OrderedSet <Event> L, OrderedSet <Event> Q, List <Point> outPoints)
{
switch (curEvent.pType)
{
case PointType.Start:
{
KeyValuePair <Event, Event> upLow = L.DirectUpperAndLower(curEvent);
if (upLow.Key != null)
{
checkIntersection(upLow.Key, curEvent, Q, outPoints);
}
if (upLow.Value != null)
{
checkIntersection(curEvent, upLow.Value, Q, outPoints);
}
L.Add(curEvent);
break;
}
case PointType.End:
{
KeyValuePair <Event, Event> upLow = L.DirectUpperAndLower(curEvent);
if (upLow.Key != null && upLow.Value != null)
{
checkIntersection(upLow.Key, upLow.Value, Q, outPoints);
}
L.Remove(new Event(segments[curEvent.segIdx].Start, PointType.Start, curEvent.segIdx, null, null));
break;
}
case PointType.Intersection:
{
Event upup = L.DirectUpperAndLower(curEvent.upper).Key;
Event lowlow = L.DirectUpperAndLower(curEvent.lower).Value;
if (upup != null)
{
checkIntersection(upup, curEvent.lower, Q, outPoints);
}
if (lowlow != null)
{
checkIntersection(curEvent.upper, lowlow, Q, outPoints);
}
L.Remove(curEvent.upper); L.Remove(curEvent.lower);
curEvent.lower.point.X = curEvent.point.X; curEvent.lower.point.Y = curEvent.point.Y;
curEvent.upper.point.X = curEvent.point.X; curEvent.upper.point.Y = curEvent.point.Y;
L.Add(curEvent.upper); L.Add(curEvent.lower);
break;
}
default:
break;
}
}
public void UseCustomEquality()
{
//Two persons are considered the same if they have the same id number
var set = new OrderedSet <Person>(new IdNumberComparer());
Assert.True(set.Add(new Person()
{
IdNumber = 1, Name = "John Doe"
}));
Assert.False(set.Add(new Person()
{
IdNumber = 1, Name = "Richard Bauer"
}));
}
public void OrderedSet_OrdersItems_ByInsertionOrder()
{
const string firstItem = "foo";
const string secondItem = "bar";
var set = new OrderedSet <string>();
set.Add(firstItem);
set.Add(secondItem);
var expectedOrder = new[] { firstItem, secondItem };
Assert.Equal(expectedOrder, set);
}
static void Main(string[] args)
{
OrderedSet<int> orderedSet = new OrderedSet<int>();
orderedSet.Add(5);
orderedSet.Add(3);
orderedSet.Add(7);
orderedSet.Add(1);
orderedSet.Add(4);
orderedSet.Add(6);
orderedSet.Add(8);
orderedSet.Add(2);
foreach (var i in orderedSet)
{
Console.WriteLine(i);
}
Console.WriteLine($"Number of elements (should be 7): {orderedSet.Count}");
Console.WriteLine($"Check if set contains 3 (it should): {orderedSet.Contains(3)}");
Console.WriteLine($"Try removing 3 (should succeed): {orderedSet.Remove(3)}");
Console.WriteLine($"Try removing 3 (should fail): {orderedSet.Remove(3)}");
Console.WriteLine($"Try removing 5 (should succeed): {orderedSet.Remove(5)}");
Console.WriteLine($"Check if set contains 5 (it should not): {orderedSet.Contains(5)}");
Console.WriteLine($"Number of elements (should be 5): {orderedSet.Count}");
foreach (var i in orderedSet)
{
Console.WriteLine(i);
}
}
public IntervalNode(List <Interval <T, D> > intervalList)
{
intervals = new OrderedDictionary <Interval <T, D>, List <Interval <T, D> > >();
var endpoints = new OrderedSet <D>();
foreach (var interval in intervalList)
{
endpoints.Add(interval.Start);
endpoints.Add(interval.End);
}
Nullable <D> median = GetMedian(endpoints);
center = median.GetValueOrDefault();
List <Interval <T, D> > left = new List <Interval <T, D> >();
List <Interval <T, D> > right = new List <Interval <T, D> >();
foreach (Interval <T, D> interval in intervalList)
{
if (interval.End.CompareTo(center) < 0)
{
left.Add(interval);
}
else if (interval.Start.CompareTo(center) > 0)
{
right.Add(interval);
}
else
{
List <Interval <T, D> > posting;
if (!intervals.TryGetValue(interval, out posting))
{
posting = new List <Interval <T, D> >();
intervals.Add(interval, posting);
}
posting.Add(interval);
}
}
if (left.Count > 0)
{
leftNode = new IntervalNode <T, D>(left);
}
if (right.Count > 0)
{
rightNode = new IntervalNode <T, D>(right);
}
}
public void initDrones(int num)
{
int units = 16;
int rowcapacity = 5;
int parkingInterval = units / rowcapacity;
int rowNeeded = num / rowcapacity;
for (int i = 0; i < num; i++)
{
// Debug.Log(parkinglot[parkingInterval * i]);
Drone newDrone = new Drone(i, parkinglot[parkingInterval * i]);
dronesDict.Add(i, newDrone);
availableDronesId.Add(i);
}
}
public void DuplicateObjectTest()
{
OrderedSet <Person> actual = new OrderedSet <Person>();
Person p1 = new Person {
FirstName = "Granville", LastName = "Barnett"
};
Person p2 = new Person {
FirstName = "Granville", LastName = "Barnett"
};
actual.Add(p1);
actual.Add(p2);
Assert.AreEqual(1, actual.Count);
}
/// Summary
/// Time: 4 min 10 sec
/// Pattern: AAAA, State Relation
/// Failing Test - Exposed a NullReferenceException in Person class. This could be a minor issue as Person class is a
/// temporary class written for testing purposes.
public void DuplicateObjectTest([PexAssumeUnderTest] OrderedSet <Person> actual, string firstname, string lastname)
{
int prevCount = actual.Count;
Person p1 = new Person {
FirstName = firstname, LastName = lastname
};
Person p2 = new Person {
FirstName = firstname, LastName = lastname
};
actual.Add(p1);
actual.Add(p2);
PexAssert.AreEqual(prevCount + 1, actual.Count);
}
public void InsertionOrderIsPreserved()
{
var set = new OrderedSet <int>();
Assert.True(set.Add(3));
Assert.True(set.Add(1));
Assert.True(set.Add(2));
List <int> setItems = set.ToList();
Assert.Equal(setItems.Count, 3);
Assert.Equal(setItems[0], 3);
Assert.Equal(setItems[1], 1);
Assert.Equal(setItems[2], 2);
}
public static void Calculate(Graph graph, string name)
{
if (!graph.VertexMap.ContainsKey(name))
{
throw new KeyNotFoundException("Start vertex not found");
}
graph.ClearAll();
var pq = new OrderedSet <Path>();
var start = graph.VertexMap[name];
var nodesSeen = 0;
pq.Add(new Path(start, 0));
start.Dist = 0;
while (pq.Count > 0 && nodesSeen < graph.VertexMap.Count)
{
var vrec = pq.RemoveFirst();
var v = vrec.Destination;
if (v.Scratch != 0)
{
continue;
}
v.Scratch = 1;
nodesSeen++;
foreach (var edge in v.Adjacent)
{
var w = edge.Destination;
var cvw = edge.Cost;
if (cvw < 0)
{
throw new Exception("Graph has negative edges");
}
if (w.Dist > v.Dist + cvw)
{
w.Dist = v.Dist + cvw;
w.Previous = v;
pq.Add(new Path(w, w.Dist));
}
}
}
}
protected override void ResolveEmbeddedFilesFromExternalSourceDirectives(
SyntaxTree tree,
SourceReferenceResolver resolver,
OrderedSet <string> embeddedFiles,
DiagnosticBag diagnostics)
{
foreach (LineDirectiveTriviaSyntax directive in tree.GetRoot().GetDirectives(
d => d.IsActive && !d.HasErrors && d.Kind() == SyntaxKind.LineDirectiveTrivia))
{
var path = (string?)directive.File.Value;
if (path == null)
{
continue;
}
string?resolvedPath = resolver.ResolveReference(path, tree.FilePath);
if (resolvedPath == null)
{
diagnostics.Add(
MessageProvider.CreateDiagnostic(
(int)ErrorCode.ERR_NoSourceFile,
directive.File.GetLocation(),
path,
CSharpResources.CouldNotFindFile));
continue;
}
embeddedFiles.Add(resolvedPath);
}
}
public void OrderedSet_Supports_AddingValues()
{
var set = new OrderedSet <string>();
set.Add("foo");
Assert.Single(set);
}
public override bool VisitDeclaration(Declaration decl)
{
if (AlreadyVisited(@decl))
{
return(false);
}
if (Declarations.Contains(@decl))
{
return(false);
}
if (decl == TranslationUnit)
{
return(true);
}
if (decl is TranslationUnit)
{
return(false);
}
if (decl is Class || decl is Enumeration || decl is TypedefDecl)
{
Declarations.Add(decl);
}
// No need to continue visiting after a declaration of another
// translation unit is encountered.
return(decl.Namespace != null && decl.Namespace.TranslationUnit == TranslationUnit);
}
public static void Recursive(int index, Frame[] result, int start)
{
if (index == result.Length)
{
StringBuilder sb = new StringBuilder();
for (int i = 0; i < result.Length - 1; i++)
{
sb.Append(result[i].ToString());
sb.Append(" | ");
}
sb.Append(result[result.Length - 1].ToString());
if (!combinations.Contains(sb.ToString()))
{
combinations.Add(sb.ToString());
}
}
else
{
for (int i = start; i < frames.Length; i++)
{
if (!used[i])
{
used[i] = true;
result[index] = frames[i];
Recursive(index + 1, result, start);
result[index] = new Frame(frames[i].Height, frames[i].Width);
Recursive(index + 1, result, start);
used[i] = false;
}
}
}
}
public static OrderedSet<int> Create(int[] item_i)
{
OrderedSet<int> orderedSet = new OrderedSet<int>();
for (int i = 0; i < item_i.Length; i++)
orderedSet.Add(item_i[i]);
return orderedSet;
}
public void AddRoom(int roomId)
{
if (nodesWithRoomsById.ContainsKey(roomId))
{
throw new ArgumentException("Room with this id already exists!");
}
//int previousRoomId = roomsById.RangeFrom(0, true).GetLast();
//LinkedListNode<Room> previousNode;
//nodesWithRoomsById.TryGetValue(previousRoomId, out previousNode);
var nextRoomSet = roomsById.RangeTo(roomId, false);
Room newRoom = new Room(roomId);
LinkedListNode <Room> roomNode = new LinkedListNode <Room>(newRoom);
if (nextRoomSet.Count == 0)
{
roomsLink.AddLast(roomNode);
}
else
{
int nextRoomId = nextRoomSet.GetFirst();
LinkedListNode <Room> nextNode;
nodesWithRoomsById.TryGetValue(nextRoomId, out nextNode);
roomsLink.AddBefore(nextNode, roomNode);
}
nodesWithRoomsById.Add(roomId, roomNode);
roomsById.Add(roomId);
RoomCount++;
}
private void SetFunctionDefinition(CustomNodeDefinition def)
{
var id = def.FunctionId;
loadedCustomNodes[id] = def;
loadOrder.Add(id);
}
public IGeometry Union()
{
PointLocator locater = new PointLocator();
// use a set to eliminate duplicates, as required for union
var exteriorCoords = new OrderedSet <Coordinate>();
foreach (IPoint point in PointExtracter.GetPoints(_pointGeom))
{
Coordinate coord = point.Coordinate;
Location loc = locater.Locate(coord, _otherGeom);
if (loc == Location.Exterior)
{
exteriorCoords.Add(coord);
}
}
// if no points are in exterior, return the other geom
if (exteriorCoords.Count == 0)
{
return(_otherGeom);
}
// make a puntal geometry of appropriate size
ICoordinateSequence coords = _geomFact.CoordinateSequenceFactory.Create(exteriorCoords.ToArray());
IGeometry ptComp = coords.Count == 1 ? (IGeometry)_geomFact.CreatePoint(coords.GetCoordinate(0)) : _geomFact.CreateMultiPoint(coords);
// add point component to the other geometry
return(GeometryCombiner.Combine(ptComp, _otherGeom));
}
public IGeometry Union()
{
PointLocator locater = new PointLocator();
// use a set to eliminate duplicates, as required for union
var exteriorCoords = new OrderedSet<Coordinate>();
foreach (IPoint point in PointExtracter.GetPoints(_pointGeom))
{
Coordinate coord = point.Coordinate;
Location loc = locater.Locate(coord, _otherGeom);
if (loc == Location.Exterior)
{
exteriorCoords.Add(coord);
}
}
// if no points are in exterior, return the other geom
if (exteriorCoords.Count == 0)
{
return _otherGeom;
}
// make a puntal geometry of appropriate size
ICoordinateSequence coords = _geomFact.CoordinateSequenceFactory.Create(exteriorCoords.ToArray());
IGeometry ptComp = coords.Count == 1 ? (IGeometry)_geomFact.CreatePoint(coords.GetCoordinate(0)) : _geomFact.CreateMultiPoint(coords);
// add point component to the other geometry
return GeometryCombiner.Combine(ptComp, _otherGeom);
}
static void Main(string[] args)
{
var set = new OrderedSet<int>();
set.Add(17);
set.Add(17);
set.Add(9);
set.Add(12);
set.Add(19);
set.Add(6);
set.Add(25);
Console.WriteLine("Set contains 12: {0}", set.Contains(12));
Console.WriteLine("Set contains 123: {0}", set.Contains(123));
Console.WriteLine("Number of elements: {0}",set.Count);
Console.WriteLine("=========");
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("Remove 17:");
set.Remove(17);
Console.WriteLine(string.Join(" -> ", set.ToList()));
Console.WriteLine("=========");
Console.WriteLine("Set contains 17: {0}", set.Contains(17));
Console.WriteLine("Number of elements: {0}", set.Count);
Console.WriteLine("=========");
}
private static long FindMinSpanningTreeSum(Node<char> startingNode, int nodesCount)
{
HashSet<char> visitedNodes = new HashSet<char>();
OrderedSet<Connection<char>> connections = new OrderedSet<Connection<char>>();
long currentSum = 0;
visitedNodes.Add(startingNode.Symbol);
foreach (var connection in startingNode.Connections)
{
if (!visitedNodes.Contains(connection.toNode.Symbol))
{
connections.Add(connection);
}
}
while (connections.Count > 0)
{
Connection<char> currentConnection = connections.GetFirst();
connections.RemoveFirst();
Node<char> currentNode = currentConnection.toNode;
if (!visitedNodes.Contains(currentNode.Symbol))
{
currentSum += currentConnection.Distance;
}
visitedNodes.Add(currentNode.Symbol);
if (visitedNodes.Count == nodesCount)
{
break;
}
foreach (var connection in currentNode.Connections)
{
if (!visitedNodes.Contains(connection.toNode.Symbol))
{
connections.Add(connection);
}
}
}
return currentSum;
}
public static void Main()
{
List<int> itemsToAdd = new List<int> { 17, 9, 9, 12, 19, 6, 25, 10, 15 };
var set = new OrderedSet<int>();
Console.WriteLine("Adding elements: {0}", string.Join(", ", itemsToAdd));
foreach (var item in itemsToAdd)
{
var added = set.Add(item);
//// duplicate items shouldn't be added twice in the set like item 9
Console.WriteLine("Item {0}\t: {1}", item, added ? "added" : "not added");
}
Console.WriteLine("{0}\nUsing IEnumerable foreach:", Separator);
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("{0}\nCount: {1}", Separator, set.Count);
Console.WriteLine("{0}\nMin: {1}", Separator, set.Min);
Console.WriteLine("{0}\nMax: {1}", Separator, set.Max);
Console.WriteLine("{0}\nContains {1}: {2}", Separator, ContainedValue, set.Contains(ContainedValue));
Console.WriteLine("{0}\nContains {1}: {2}", Separator, NotContainedValue, set.Contains(NotContainedValue));
Console.WriteLine("{0}\nUsing ForEach method:", Separator);
set.ForEach(Console.WriteLine);
Console.WriteLine("{0}\nEfter removing 19:", Separator);
set.Remove(19);
set.ForEach(Console.WriteLine);
Console.WriteLine("Count: {0}", set.Count);
Console.WriteLine("{0}\nEfter removing all items:", Separator);
set.Remove(6);
set.Remove(9);
set.Remove(15);
set.Remove(25);
set.Remove(10);
set.Remove(12);
set.Remove(17);
Console.WriteLine("Count: {0}", set.Count);
set.ForEach(Console.WriteLine); // Shouldn't print items because the set is empty
}
public override bool VisitClassDecl(AST.Class @class)
{
foreach (var vfptr in @class.Layout.VFTables)
{
var uniqueEntries = new OrderedSet<VTableComponent>();
foreach (var entry in vfptr.Layout.Components)
uniqueEntries.Add(entry);
// The vftable does not have duplicated components.
if (vfptr.Layout.Components.Count == uniqueEntries.Count)
continue;
Driver.Diagnostics.Warning(
"Class '{0}' found with duplicated vftable components",
@class.Name);
vfptr.Layout.Components = uniqueEntries.ToList();
}
return base.VisitClassDecl(@class);
}
public static void Main()
{
var testSet = new OrderedSet<int>();
testSet.Add(7);
testSet.Add(1);
testSet.Add(72);
testSet.Add(-27);
testSet.Add(0);
testSet.Add(15);
Console.WriteLine(string.Join(", ", testSet));
testSet.Remove(0);
Console.WriteLine(string.Join(", ", testSet));
}
public void TrimLarger()
{
var set = new OrderedSet<Story>();
var story = new Story(new FrontpageItem { Title = "title", Link = "blah", Description = "shouldnt matter" }) { DisplayTime = DateTime.Now};
var story2 = new Story(new FrontpageItem { Title = "title2", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
var story3 = new Story(new FrontpageItem { Title = "title3", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
var story4 = new Story(new FrontpageItem { Title = "title4", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
var story5 = new Story(new FrontpageItem { Title = "title5", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
var story6 = new Story(new FrontpageItem { Title = "title6", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
var story7 = new Story(new FrontpageItem { Title = "title7", Link = "blah", Description = "diff but irrelevant" }) {DisplayTime = DateTime.MinValue};
set.Add(story);
set.Add(story2);
set.Add(story3);
set.Add(story4);
set.Add(story5);
set.Add(story6);
set.Add(story7);
set.Trim(3);
Assert.AreEqual(3, set.Count);
}
static void Main(string[] args)
{
OrderedSet<int> set = new OrderedSet<int>();
set.Add(17);
set.Add(9);
set.Add(12);
set.Add(19);
set.Add(6);
set.Add(25);
Console.WriteLine(set.Contains(105));
foreach (var item in set)
{
Console.WriteLine(item);
}
set.Remove(25);
set.Remove(9);
Console.WriteLine("\n");
foreach (var item in set)
{
Console.WriteLine(item);
}
set = new OrderedSet<int>();
set.Add(1);
set.Add(2);
set.Add(3);
set.Add(4);
set.Add(5);
set.Add(6);
set.Add(7);
Console.WriteLine();
}
static void Main()
{
var example1 = new OrderedSet<int>();
example1.Add(17);
example1.Add(9);
example1.Add(12);
example1.Add(19);
example1.Add(6);
example1.Add(25);
example1.Add(8);
example1.Remove(9);
var example2 = new OrderedSet<int>();
example2.Add(17);
example2.Add(9);
example2.Add(19);
example2.Add(6);
example2.Add(12);
example2.Add(25);
example2.Add(22);
example2.Add(33);
example2.Add(28);
example2.Add(35);
example2.Add(3);
example2.Add(2);
example2.Add(1);
example2.Add(5);
example2.Add(4);
example2.Add(11);
example2.Add(13);
example2.Add(26);
example2.Remove(9);
}
public static void Main()
{
OrderedSet<int> orderedSet = new OrderedSet<int>();
orderedSet.Add(2);
orderedSet.Add(-1);
orderedSet.Add(5);
orderedSet.Add(0);
orderedSet.Add(555);
orderedSet.Add(7);
Console.WriteLine("Overall number of elements in the Ordered Set are: " + orderedSet.Count);
Console.WriteLine("The elements of the Ordered Set are as follows:");
orderedSet.PrintInOrder();
Console.WriteLine("Does the Ordered Set countain node with value 7? " + orderedSet.Contains(7));
Console.WriteLine("Is the value 2 removed from the Ordered Set? " + orderedSet.Remove(2));
Console.WriteLine("Overall number of elements in the Ordered Set are: " + orderedSet.Count);
Console.WriteLine("The elements of the Ordered Set are as follows:");
foreach(var input in orderedSet)
{
Console.WriteLine(input);
}
}
private void checkIntersection(Event upper,Event lower, OrderedSet<Event> Q,List<Point> outPoints)
{
Line a = new Line(upper.point,segments[upper.segIdx].End);
Line b = new Line(lower.point,segments[lower.segIdx].End);
if (HelperMethods.CheckTurn(new Line(a.Start, a.End), b.Start) == HelperMethods.CheckTurn(new Line(a.Start, a.End), b.End)
|| (HelperMethods.CheckTurn(new Line(b.Start, b.End), a.Start) == HelperMethods.CheckTurn(new Line(b.Start, b.End), a.End)))
return;
double aa, bb, cc, dd;
Point interPoint;
if (Math.Abs(a.Start.X - a.End.X) < Constants.Epsilon)
{
bb = (b.Start.Y - b.End.Y) / (b.Start.X - b.End.X);
dd = b.Start.Y - b.Start.X * bb;
interPoint = new Point(a.Start.X, (bb * a.Start.X + dd));
}
else if (Math.Abs(b.Start.X - b.End.X) < Constants.Epsilon)
{
aa = (a.Start.Y - a.End.Y) / (a.Start.X - a.End.X);
cc = a.Start.Y - a.Start.X * aa;
interPoint = new Point(b.Start.X, (aa * a.Start.X + cc));
}
else
{
aa = (a.Start.Y - a.End.Y) / (a.Start.X - a.End.X);
bb = (b.Start.Y - b.End.Y) / (b.Start.X - b.End.X);
cc = a.Start.Y - a.Start.X * aa;
dd = b.Start.Y - b.Start.X * bb;
double interX = (dd - cc) / (aa - bb);
interPoint = new Point(interX, (aa * interX + cc));
}
Q.Add(new Event(interPoint, PointType.Intersection,-1 ,upper,lower));
outPoints.Add(interPoint);
}
static void Main()
{
OrderedSet<int> set = new OrderedSet<int>();
set.Add(20);
set.Add(25);
set.Add(24);
set.Add(23);
set.Add(22);
set.Remove(25);
foreach (var i in set)
{
Console.WriteLine(i);
}
Console.WriteLine("Count : " + set.Count);
Console.WriteLine();
set = new OrderedSet<int>();
set.Add(20);
set.Add(15);
set.Add(3);
set.Add(4);
set.Add(25);
set.Add(30);
set.Add(27);
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("Count : " + set.Count);
set.Remove(25);
Console.WriteLine();
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("Count : " + set.Count);
set.Remove(20);
Console.WriteLine();
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("Count : " + set.Count);
set.Remove(27);
Console.WriteLine();
foreach (var element in set)
{
Console.WriteLine(element);
}
Console.WriteLine("Count : " + set.Count);
}
private static void SaveShortestPaths(Node<char> currentNode, Node<char> endNode,
HashSet<char> visitedNodes, OrderedSet<Node<char>> nextNodes, Dictionary<char, string> paths)
{
if (paths.Count == 0)
{
paths.Add(currentNode.Symbol, currentNode.Symbol.ToString());
}
visitedNodes.Add(currentNode.Symbol);
foreach (var nodeDistance in currentNode.Children)
{
Node<char> child = nodeDistance.Key;
if (!visitedNodes.Contains(child.Symbol))
{
int temporaryWeight = nodeDistance.Value + currentNode.Weight;
if (child.Weight == 0 || child.Weight > temporaryWeight)
{
if (nextNodes.Contains(child))
{
nextNodes.Remove(child);
}
child.Weight = temporaryWeight;
paths[child.Symbol] = paths[currentNode.Symbol] + " -> " +
child.Symbol.ToString() + "(" + child.Weight + ")";
}
nextNodes.Add(child);
}
}
Node<char> nextNode = nextNodes[0];
nextNodes.Remove(nextNode);
if (nextNodes.Count == 0)
{
return;
}
SaveShortestPaths(nextNode, endNode, visitedNodes, nextNodes, paths);
}
static void Main()
{
Console.Write("Bag of Integers: ");
var bagOfInts = new Bag<int>();
bagOfInts.Add(3);
bagOfInts.Add(5);
bagOfInts.Add(5);
bagOfInts.Add(5);
bagOfInts.Add(10);
bagOfInts.Add(20);
bagOfInts.Add(20);
bagOfInts.Remove(5);
bagOfInts.RemoveAllCopies(20);
bagOfInts.UnionWith(new Bag<int>() { 3, 3, 4, 4, 5, 5 });
Console.WriteLine(bagOfInts);
Console.Write("OrderedBag of Integers: ");
var orderedBagOfInts = new OrderedBag<int>();
orderedBagOfInts.Add(3);
orderedBagOfInts.Add(5);
orderedBagOfInts.Add(5);
orderedBagOfInts.Add(5);
orderedBagOfInts.Add(10);
orderedBagOfInts.Add(20);
orderedBagOfInts.Add(20);
orderedBagOfInts.Remove(5);
orderedBagOfInts.RemoveAllCopies(20);
orderedBagOfInts.UnionWith(new OrderedBag<int>() { 3, 3, 4, 4, 5, 5 });
Console.WriteLine(orderedBagOfInts);
Console.WriteLine("Sub-range [5...10]: " +
orderedBagOfInts.Range(5, true, 10, true));
Console.Write("Set of Integers: ");
var setOfInts = new Set<int>();
setOfInts.Add(3);
setOfInts.Add(5);
setOfInts.Add(5);
setOfInts.Add(5);
setOfInts.Add(10);
setOfInts.Add(20);
setOfInts.Add(20);
setOfInts.Remove(5);
setOfInts.UnionWith(new Set<int>() { 3, 4, 5 });
Console.WriteLine(setOfInts);
Console.Write("OrderedSet of Integers: ");
var orderedSetOfInts = new OrderedSet<int>();
orderedSetOfInts.Add(3);
orderedSetOfInts.Add(5);
orderedSetOfInts.Add(5);
orderedSetOfInts.Add(5);
orderedSetOfInts.Add(10);
orderedSetOfInts.Add(20);
orderedSetOfInts.Add(20);
orderedSetOfInts.Remove(5);
orderedSetOfInts.UnionWith(new OrderedSet<int>() { 3, 4, 5 });
Console.WriteLine(orderedSetOfInts);
Console.WriteLine("Sub-range [5...20): " +
orderedSetOfInts.Range(5, true, 20, false));
Console.Write("MultiDictionary<string,int>: ");
var studentGrades = new MultiDictionary<string, int>(true);
studentGrades.Add("Peter", 3);
studentGrades.Add("Peter", 4);
studentGrades.Add("Peter", 4);
studentGrades.Add("Stanka", 6);
studentGrades.Add("Stanka", 5);
studentGrades.Add("Stanka", 6);
studentGrades.Add("Tanya", 6);
studentGrades.Add("Tanya", 4);
Console.WriteLine(studentGrades);
Console.WriteLine("OrderedMultiDictionary<string,int>:");
var distancesFromSofia = new OrderedMultiDictionary<int, string>(true);
distancesFromSofia.Add(149, "Plovdiv");
distancesFromSofia.Add(505, "Varna");
distancesFromSofia.Add(394, "Bourgas");
distancesFromSofia.Add(310, "Rousse");
distancesFromSofia.Add(163, "Pleven");
distancesFromSofia.Add(163, "Troyan");
foreach (var distanceTowns in distancesFromSofia)
{
Console.WriteLine("\t" + distanceTowns);
}
Console.Write("Deque<string>: ");
var people = new Deque<string>();
people.AddToBack("Kiro");
people.AddToBack("Maria");
people.AddToFront("Steve");
people.AddManyToBack(new string[] { "Ivan", "Veronika" });
Console.WriteLine(people);
Console.Write("BigList<int>: ");
var ints = new BigList<int>();
// var ints = new List<int>();
for (int i = 0; i < 1000000; i++)
{
ints.Add(i);
}
for (int i = 0; i < 50000; i++)
{
ints.Insert(i, i);
}
Console.WriteLine(ints.Count);
}
protected override void ResolveEmbeddedFilesFromExternalSourceDirectives(
SyntaxTree tree,
SourceReferenceResolver resolver,
OrderedSet<string> embeddedFiles,
IList<Diagnostic> diagnostics)
{
foreach (LineDirectiveTriviaSyntax directive in tree.GetRoot().GetDirectives(
d => d.IsActive && !d.HasErrors && d.Kind() == SyntaxKind.LineDirectiveTrivia))
{
string path = (string)directive.File.Value;
if (path == null)
{
continue;
}
string resolvedPath = resolver.ResolveReference(path, tree.FilePath);
if (resolvedPath == null)
{
diagnostics.Add(
MessageProvider.CreateDiagnostic(
(int)ErrorCode.ERR_NoSourceFile,
directive.File.GetLocation(),
path,
CSharpResources.CouldNotFindFile));
continue;
}
embeddedFiles.Add(resolvedPath);
}
}
private void initializeEvents(OrderedSet<Event> Q)
{
for (int i = 0; i < segments.Count; ++i)
{
if (segments[i].Start.X > segments[i].End.X)
swap(segments[i].Start, segments[i].End);
Q.Add(new Event(segments[i].End, PointType.End, i,null,null));
Q.Add(new Event(segments[i].Start, PointType.Start, i,null,null));
}
}
/// <summary>
/// @see IJobOperator#GetRunningExecutions .
/// </summary>
/// <param name="jobName"></param>
/// <returns></returns>
/// <exception cref="NoSuchJobException"> </exception>
public ICollection<long?> GetRunningExecutions(string jobName)
{
// SLE: OrderedSet is not a ISet: must return a Collection (Interface changed for that purpose)
ICollection<long?> set = new OrderedSet<long?>();
foreach (JobExecution jobExecution in JobExplorer.FindRunningJobExecutions(jobName))
{
set.Add(jobExecution.Id);
}
if (!set.Any() && !JobRegistry.GetJobNames().Contains(jobName))
{
throw new NoSuchJobException(string.Format("No such job (either in registry or in historical data): {0}", jobName));
}
return set;
}
public static void Main(string[] args)
{
var set = new OrderedSet<int>();
Console.WriteLine("Add numbers --> 19, 21, 55, 27, 66, 33, 17, 85");
set.Add(19);
set.Add(21);
set.Add(55);
set.Add(27);
set.Add(66);
set.Add(33);
set.Add(17);
set.Add(85);
Console.WriteLine();
Console.WriteLine("In-order print --> ");
set.PrintInOrder(set.Root);
Console.WriteLine();
Console.WriteLine("Foreach --> ");
foreach (var item in set)
{
Console.Write(item + " ");
}
Console.WriteLine();
Console.WriteLine("EachInOrder(Action<T> action) --> ");
set.EachInOrder(n => Console.Write(n + " "));
Console.WriteLine();
Console.WriteLine("Insert 44 --> ");
set.Add(44);
set.EachInOrder(n => Console.Write(n + " "));
Console.WriteLine();
Console.WriteLine("Remove 66 --> ");
set.Remove(66);
set.EachInOrder(n => Console.Write(n + " "));
Console.WriteLine();
Console.WriteLine("Find 17 --> ");
var find17 = set.Find(17) != null ? "17" : "null";
Console.WriteLine(find17);
Console.WriteLine();
Console.WriteLine("Find 200 --> ");
var find200 = set.Find(200) != null ? "200" : "null";
Console.WriteLine(find200);
Console.WriteLine();
Console.WriteLine("Contains 44 --> ");
var contains44 = set.Contains(44) == true ? "true" : "false";
Console.WriteLine(contains44);
Console.WriteLine();
Console.WriteLine("Contains 200 --> ");
var contains200 = set.Contains(200) == true ? "true" : "false";
Console.WriteLine(contains200);
Console.WriteLine();
Console.WriteLine("Count --> ");
Console.WriteLine(set.Count);
Console.WriteLine(
"Count after Add and Remove: Add 11, Remove 55, Add 5, Add 84, Add 18, Remove 5, Remove 18 (no such value)");
set.Add(11);
set.Remove(55);
set.Add(5);
set.Add(84);
set.Add(18);
set.Remove(5);
set.Remove(18);
Console.WriteLine("Count --> {0}", set.Count);
set.EachInOrder(n => Console.Write(n + " "));
Console.WriteLine();
Console.WriteLine("Min value --> {0}", set.Min());
Console.WriteLine();
Console.WriteLine("Min value --> {0}", set.Max());
Console.WriteLine();
set.Clear();
Console.WriteLine("Clear --> {0} (Count)", set.Count);
}
public static void Main(string[] args)
{
var ints = new OrderedSet<int> ();
Console.WriteLine ("Initial set:");
ints.Add (17);
ints.Add (17);
ints.Add (17);
ints.Add (9);
ints.Add (12);
ints.Add (19);
ints.Add (6);
ints.Add (25);
foreach (var val in ints) {
Console.WriteLine (val);
}
Console.WriteLine ("17 exist. {0}.", ints.Contains(17));
Console.WriteLine ("9 exist. {0}.", ints.Contains(9));
Console.WriteLine ("12 exist. {0}.", ints.Contains(12));
Console.WriteLine ("18 exists. {0}.", ints.Contains(18));
Console.WriteLine ("19 exists. {0}.", ints.Contains(19));
Console.WriteLine ("6 exists. {0}.", ints.Contains(6));
Console.WriteLine ("25 exists. {0}.", ints.Contains(25));
Console.WriteLine ("27 exists. {0}.", ints.Contains(27));
Console.WriteLine ("28 exists. {0}.", ints.Contains(28));
Console.WriteLine ("Adding some elements:");
ints.Add (1);
ints.Add (2);
ints.Add (3);
ints.Add (4);
ints.Add (5);
ints.Add (7);
ints.Add (8);
ints.Add (10);
foreach (var val in ints) {
Console.WriteLine (val);
}
Console.WriteLine ("Removing some elements:");
ints.Remove (2);
ints.Remove (5);
ints.Remove (6);
ints.Remove (9);
ints.Remove (17);
ints.Remove (100);
foreach (var val in ints) {
Console.WriteLine (val);
}
}
public void SetDefaults()
{
DateTime today = new DateTime(DateTime.Now.Year, DateTime.Now.Month, DateTime.Now.Day);
StringSet = new HashedSet<string> {"foo", "bar", "baz"};
StringDateMap = new SortedList();
StringDateMap.Add("now", DateTime.Now);
StringDateMap.Add("never", null); // value is persisted since NH-2199
// according to SQL Server the big bag happened in 1753 ;)
StringDateMap.Add("big bang", new DateTime(1753, 01, 01));
//StringDateMap.Add( "millenium", new DateTime( 2000, 01, 01 ) );
StringArray = StringSet.ToArray();
StringList = new ArrayList(StringArray);
IntArray = new int[] {1, 3, 3, 7};
FooArray = new Foo[0];
Customs = new ArrayList();
Customs.Add(new String[] {"foo", "bar"});
Customs.Add(new String[] {"A", "B"});
Customs.Add(new String[] {"1", "2"});
FooSet = new HashedSet<FooProxy>();
Components = new FooComponent[]
{
new FooComponent("foo", 42, null, null),
new FooComponent("bar", 88, null, new FooComponent("sub", 69, null, null))
};
TimeArray = new DateTime[]
{
new DateTime(),
new DateTime(),
new DateTime(), // H2.1 has null here, but it's illegal on .NET
new DateTime(0)
};
Count = 667;
Name = "Bazza";
TopComponents = new ArrayList();
TopComponents.Add(new FooComponent("foo", 11, new DateTime[] {today, new DateTime(2123, 1, 1)}, null));
TopComponents.Add(
new FooComponent("bar", 22, new DateTime[] {new DateTime(2007, 2, 3), new DateTime(1945, 6, 1)}, null));
TopComponents.Add(null);
Bag = new ArrayList();
Bag.Add("duplicate");
Bag.Add("duplicate");
Bag.Add("duplicate");
Bag.Add("unique");
Cached = new OrderedSet<CompositeElement>();
CompositeElement ce = new CompositeElement();
ce.Foo = "foo";
ce.Bar = "bar";
CompositeElement ce2 = new CompositeElement();
ce2.Foo = "fooxxx";
ce2.Bar = "barxxx";
Cached.Add(ce);
Cached.Add(ce2);
CachedMap = new SortedList();
CachedMap.Add(this, ce);
}
/// <summary>
/// OrderedSet<T>
/// A set based on balanced search tree (red-black) (NO DUPLICATES)
/// Add / Find / Remove work in time O(log(N))
/// Like .NET’s SortedSet<T>
/// Provides fast .Range(from, to) operation
/// </summary>
private static void TestOrderedSet()
{
OrderedSet<Student> students = new OrderedSet<Student>();
var student1 = new Student("Pesho", 21);
var student2 = new Student("Pesho", 21);
students.Add(student1);
students.Add(student2);
Console.WriteLine("Equals: " + student1.Equals(student2));
Console.WriteLine("CompareTo: " + student1.CompareTo(student2));
Console.WriteLine(student1.GetHashCode());
Console.WriteLine(student2.GetHashCode());
students.Add(student1);
var student3 = new Student("Pesho", 22);
var student4 = new Student("Pesho", 23);
var student5 = new Student("Pesho", 24);
students.Add(student3);
students.Add(student4);
students.Add(student5);
foreach (var item in students)
{
Console.WriteLine(item);
}
Console.WriteLine("========== Range Age >= 22 && <= 23 ============= ");
var rangeBag = students.Range(student3, true, student4, true);
foreach (var item in rangeBag)
{
Console.WriteLine(item);
}
Console.WriteLine("==========ForEach(x => { x.Age += 1; Console.WriteLine(x); })============= ");
students.ForEach(x => { x.Age += 1; Console.WriteLine(x); });
}
private void handleEvent(Event curEvent, OrderedSet<Event> L, OrderedSet<Event> Q, List<Point> outPoints)
{
switch (curEvent.pType)
{
case PointType.Start:
{
KeyValuePair<Event, Event> upLow = L.DirectUpperAndLower(curEvent);
if (upLow.Key != null)
checkIntersection(upLow.Key, curEvent, Q, outPoints);
if (upLow.Value != null)
checkIntersection(curEvent, upLow.Value, Q, outPoints);
L.Add(curEvent);
break;
}
case PointType.End:
{
KeyValuePair<Event, Event> upLow = L.DirectUpperAndLower(curEvent);
if (upLow.Key != null && upLow.Value != null)
checkIntersection(upLow.Key, upLow.Value, Q, outPoints);
L.Remove(new Event(segments[curEvent.segIdx].Start, PointType.Start, curEvent.segIdx, null, null));
break;
}
case PointType.Intersection:
{
Event upup = L.DirectUpperAndLower(curEvent.upper).Key;
Event lowlow = L.DirectUpperAndLower(curEvent.lower).Value;
if (upup !=null)
checkIntersection(upup, curEvent.lower, Q, outPoints);
if (lowlow != null)
checkIntersection(curEvent.upper,lowlow, Q, outPoints);
L.Remove(curEvent.upper); L.Remove(curEvent.lower);
curEvent.lower.point.X = curEvent.point.X;curEvent.lower.point.Y = curEvent.point.Y;
curEvent.upper.point.X = curEvent.point.X; curEvent.upper.point.Y = curEvent.point.Y;
L.Add(curEvent.upper); L.Add(curEvent.lower);
break;
}
default:
break;
}
}
public static void Main()
{
var set = new OrderedSet<int>();
set.Add(17);
set.Add(9);
set.Add(12);
set.Add(6);
set.Add(25);
set.Add(4);
set.Add(8);
set.Add(10);
set.Add(14);
set.Add(18);
set.Add(22);
set.Add(20);
set.Add(24);
set.Add(28);
set.Add(26);
set.Add(30);
set.Add(2);
set.Add(1);
Console.WriteLine(set.Contains(12));
Console.WriteLine(set.Contains(60));
foreach (var child in set)
{
Console.WriteLine(child);
}
// set.Remove(12);
set.Remove(9);
}
