/** Insert a key and value pair into CornerMap */
public void Insert(int coordindate, Individual ind)
{
if (!_map.ContainsKey(coordindate))
{
_map.Add(coordindate, new List <Individual>());
}
_map[coordindate].Add(ind);
}
private static TreeNode GetFolderNode(
TreeNode parent,
TreeMap treeMap,
string[] dirs,
int dirCount)
{
StringBuilder sb = new StringBuilder();
for (int i = 0; i < dirCount; i++)
{
sb.Append(dirs[i]);
sb.Append('\\');
}
string currDirName = sb.ToString();
if (treeMap.ContainsKey(currDirName))
{
return(treeMap[currDirName]);
}
else
{
if (dirCount == 0)
{
return(parent);
}
else
{
TreeNode ret = GetFolderNode(
parent,
treeMap,
dirs,
dirCount - 1);
TreeNode newNode = new TreeNode(dirs[dirCount - 1]);
treeMap.Add(currDirName, newNode);
ret.Nodes.Add(newNode);
return(newNode);
}
}
}
static void Main(string[] args)
{
Random random = new Random();
int test = 10;
Console.WriteLine("You are runnning the Data Structures example.");
Console.WriteLine("======================================================");
Console.WriteLine();
#region Link
Console.WriteLine(" Testing Link-------------------------------");
Console.WriteLine(" Size: 6");
Link link = new Link <int, int, int, int, int, int>(0, 1, 2, 3, 4, 5);
Console.Write(" Traversal: ");
link.Stepper((dynamic current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string linklink_file = "link." + ToExtension(link.GetType());
//Console.WriteLine(" File: \"" + linklink_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(linklink_file, link));
//Link<int, int, int, int, int, int> deserialized_linklink;
//Console.WriteLine(" Deserialized: " + Deserialize(linklink_file, out deserialized_linklink));
Console.WriteLine();
#endregion
#region Array
Console.WriteLine(" Testing Array_Array<int>-------------------");
Indexed <int> array = new IndexedArray <int>(test);
for (int i = 0; i < test; i++)
{
array[i] = i;
}
Console.Write(" Traversal: ");
array.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string arrayarray_file = "array." + ToExtension(array.GetType());
//Console.WriteLine(" File: \"" + arrayarray_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(arrayarray_file, array));
//ArrayArray<int> deserialized_arrayarray;
//Console.WriteLine(" Deserialized: " + Deserialize(arrayarray_file, out deserialized_arrayarray));
Console.WriteLine();
#endregion
#region List
Console.WriteLine(" Testing List_Array<int>--------------------");
Addable <int> list_array = new AddableArray <int>(test);
for (int i = 0; i < test; i++)
{
list_array.Add(i);
}
Console.Write(" Traversal: ");
list_array.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
//string list_array_serialization = (list_array as ListArray<int>).Serialize(x => x.ToString());
//using (StreamWriter writer = new StreamWriter("ListArray.ListArray"))
//{
// writer.WriteLine(list_array_serialization);
//}
//using (StreamReader reader = new StreamReader("ListArray.ListArray"))
//{
// list_array = ListArray<int>.Deserialize(reader.ReadToEnd(), x => Int16.Parse(x.Trim()));
//}
//Console.Write(" Serialization/Deserialization is possible.");
list_array.Add(11);
list_array.Remove(7);
Console.WriteLine();
Console.WriteLine();
//ListArray<ListArray<int>> list_array2 = new ListArray<ListArray<int>>(test);
//for (int i = 0; i < test; i++)
//{
// ListArray<int> nested_list = new ListArray<int>();
// for (int j = 0; j < test; j++)
// {
// nested_list.Add(j);
// }
// list_array2.Add(nested_list);
//}
//string list_array2_serialization = list_array2.Serialize(x => x.Serialize(y => y.ToString()));
//using (StreamWriter writer = new StreamWriter("ListArray2.ListArray"))
//{
// writer.WriteLine(list_array2_serialization);
//}
//using (StreamReader reader = new StreamReader("ListArray2.ListArray"))
//{
// list_array2 = ListArray<ListArray<int>>.Deserialize(reader.ReadToEnd(), x => ListArray<int>.Deserialize(x, y => Int16.Parse(y.Trim())));
//}
Console.WriteLine(" Testing List_Linked<int>-------------------");
Addable <int> list_linked = new AddableLinked <int>();
for (int i = 0; i < test; i++)
{
list_linked.Add(i);
}
Console.Write(" Traversal: ");
list_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string listlinked_file = "list_linked." + ToExtension(list_linked.GetType());
//Console.WriteLine(" File: \"" + listlinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(listlinked_file, list_linked));
//ListLinked<int> deserialized_listlinked;
//Console.WriteLine(" Deserialized: " + Deserialize(listlinked_file, out deserialized_listlinked));
Console.WriteLine();
#endregion
#region Stack
Console.WriteLine(" Testing Stack_Linked<int>------------------");
FirstInLastOut <int> stack_linked = new FirstInLastOutLinked <int>();
for (int i = 0; i < test; i++)
{
stack_linked.Push(i);
}
Console.Write(" Traversal: ");
stack_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string stacklinked_file = "stack_linked." + ToExtension(stack_linked.GetType());
//Console.WriteLine(" File: \"" + stacklinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(stacklinked_file, stack_linked));
//StackLinked<int> deserialized_stacklinked;
//Console.WriteLine(" Deserialized: " + Deserialize(stacklinked_file, out deserialized_stacklinked));
Console.WriteLine();
#endregion
#region Queue
Console.WriteLine(" Testing Queue_Linked<int>------------------");
FirstInFirstOut <int> queue_linked = new FirstInFirstOutLinked <int>();
for (int i = 0; i < test; i++)
{
queue_linked.Enqueue(i);
}
Console.Write(" Traversal: ");
queue_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string queuelinked_file = "queue_linked." + ToExtension(queue_linked.GetType());
//Console.WriteLine(" File: \"" + queuelinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(queuelinked_file, queue_linked));
//QueueLinked<int> deserialized_queuelinked;
//Console.WriteLine(" Deserialized: " + Deserialize(queuelinked_file, out deserialized_queuelinked));
Console.WriteLine();
#endregion
#region Heap
Console.WriteLine(" Testing Heap_Array<int>--------------------");
Heap <int> heap_array = new HeapArray <int>(Compute.Compare);
for (int i = 0; i < test; i++)
{
heap_array.Enqueue(i);
}
Console.Write(" Delegate: ");
heap_array.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string heaplinked_file = "heap_array." + ToExtension(heap_array.GetType());
//Console.WriteLine(" File: \"" + heaplinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(heaplinked_file, heap_array));
//HeapArray<int> deserialized_heaplinked;
//Console.WriteLine(" Deserialized: " + Deserialize(heaplinked_file, out deserialized_heaplinked));
Console.WriteLine();
#endregion
#region Tree
Console.WriteLine(" Testing Tree_Map<int>----------------------");
Tree <int> tree_Map = new TreeMap <int>(0, Compute.Equal, Hash.Default);
for (int i = 1; i < test; i++)
{
tree_Map.Add(i, i / (int)System.Math.Sqrt(test));
}
Console.Write(" Children of 0 (root): ");
tree_Map.Children(0, (int i) => { Console.Write(i + " "); });
Console.WriteLine();
Console.Write(" Children of " + ((int)System.Math.Sqrt(test) - 1) + " (root): ");
tree_Map.Children(((int)System.Math.Sqrt(test) - 1), (int i) => { Console.Write(i + " "); });
Console.WriteLine();
Console.Write(" Traversal: ");
tree_Map.Stepper((int i) => { Console.Write(i + " "); });
Console.WriteLine();
// Saving to a file
//string treelinked_file = "tree_Map." + ToExtension(tree_Map.GetType());
//Console.WriteLine(" File: \"" + treelinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(treelinked_file, tree_Map));
//TreeMap<int> deserialized_treelinked;
//Console.WriteLine(" Deserialized: " + Deserialize(treelinked_file, out deserialized_treelinked));
Console.WriteLine();
#endregion
#region AVL Tree
//Console.WriteLine(" Testing AvlTree_Linked<int>----------------");
//// Construction
//AvlTree<int> avlTree_linked = new AvlTree_Linked<int>(Logic.compare);
//// Adding Items
//Console.Write(" Adding (0-" + test + ")...");
//for (int i = 0; i < test; i++)
// avlTree_linked.Add(i);
//Console.WriteLine();
//// Iteration
//Console.Write(" Traversal: ");
//avlTree_linked.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//// Removal
//int avl_tree_linked_removal = random.Next(0, test);
//avlTree_linked.Remove(avl_tree_linked_removal);
//Console.Write(" Remove(" + avl_tree_linked_removal + "): ");
//avlTree_linked.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//// Look Up Items
//int avl_tree_linked_lookup = random.Next(0, test);
//while (avl_tree_linked_lookup == avl_tree_linked_removal)
// avl_tree_linked_lookup = random.Next(0, test);
//Console.WriteLine(" Look Up (" + avl_tree_linked_lookup + "): " + avlTree_linked.TryGet(avl_tree_linked_lookup, Logic.compare, out temp));
//Console.WriteLine(" Look Up (" + avl_tree_linked_removal + "): " + avlTree_linked.TryGet(avl_tree_linked_removal, Logic.compare, out temp));
//avlTree_linked.Get(avl_tree_linked_lookup, Logic.compare);
//// Current Min-Max Values
//Console.WriteLine(" Least: " + avlTree_linked.CurrentLeast + " Greatest: " + avlTree_linked.CurrentGreatest);
//// Saving to a file
//string avltreelinked_file = "avlTree_linked." + ToExtension(avlTree_linked.GetType());
//Console.WriteLine(" File: \"" + avltreelinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(avltreelinked_file, avlTree_linked));
//AvlTree_Linked<int> deserialized_avltreelinked;
//Console.WriteLine(" Deserialized: " + Deserialize(avltreelinked_file, out deserialized_avltreelinked));
//Console.WriteLine();
#endregion
#region Red-Black Tree
Console.WriteLine(" Testing RedBlack_Linked<int>---------------");
RedBlackTree <int> redBlackTree_linked = new RedBlackTreeLinked <int>(Compute.Compare);
for (int i = 0; i < test; i++)
{
redBlackTree_linked.Add(i);
}
Console.Write(" Traversal: ");
redBlackTree_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Saving to a file
//string redblacktreelinked_file = "redBlackTree_linked." + ToExtension(redBlackTree_linked.GetType());
//Console.WriteLine(" File: \"" + redblacktreelinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(redblacktreelinked_file, redBlackTree_linked));
//RedBlackTreeLinked<int> deserialized_redblacktreelinked;
//Console.WriteLine(" Deserialized: " + Deserialize(redblacktreelinked_file, out deserialized_redblacktreelinked));
Console.WriteLine();
#endregion
#region BTree
//Console.WriteLine(" Testing BTree_LinkedArray<int>-------------");
//BTree<int> btree_linked = new BTree_LinkedArray<int>(Logic.compare, 3);
//for (int i = 0; i < test; i++)
// btree_linked.Add(i);
//Console.Write(" Delegate: ");
//btree_linked.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//Console.Write(" IEnumerator: ");
//foreach (int current in btree_linked)
// Console.Write(current);
//Console.WriteLine();
//Console.WriteLine(" Press Enter to continue...");
//string maplinked_file = "maplinked.quad";
//Console.WriteLine(" File: \"" + maplinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(maplinked_file, hashTable_linked));
//Omnitree_LinkedLinkedLists<int, double> deserialized_maplinked;
//Console.WriteLine(" Deserialized: " + Deserialize(maplinked_file, out deserialized_maplinked));
//Console.ReadLine();
//Console.WriteLine();
#endregion
#region Set
Console.WriteLine(" Testing Set_Hash<int>----------------------");
Set <int> set_linked = new SetHashList <int>(Compute.Equal, Hash.Default);
for (int i = 0; i < test; i++)
{
set_linked.Add(i);
}
// Traversal
Console.Write(" Traversal: ");
set_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.Write(" Table Size: " + (set_linked as SetHashList <int>).TableSize);
Console.WriteLine();
Console.WriteLine();
#endregion
#region Map
Console.WriteLine(" Testing MapHashList<int, int>--------------");
Map <int, int> map_sethash = new MapHashLinked <int, int>(Compute.Equal, Hash.Default);
for (int i = 0; i < test; i++)
{
map_sethash.Add(i, i);
}
Console.Write(" Look Ups: ");
for (int i = 0; i < test; i++)
{
Console.Write(map_sethash[i]);
}
Console.WriteLine();
// Traversal
Console.Write(" Traversal: ");
map_sethash.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.Write(" Table Size: " + (map_sethash as MapHashLinked <int, int>).TableSize);
Console.WriteLine();
Console.WriteLine();
#endregion
#region OmnitreePoints
{
Console.WriteLine(" Testing OmnitreeLinkedLinked<int, double>-------");
// Construction
OmnitreePoints <int, double, double, double> omnitree_linked = new OmnitreePointsLinked <int, double, double, double>(
(int index, out double a, out double b, out double c) => { a = index; b = index; c = index; }); // axis average function
// Properties
Console.WriteLine(" Dimensions: " + omnitree_linked.Dimensions);
Console.WriteLine(" Count: " + omnitree_linked.Count);
// Addition
Console.Write(" Adding 0-" + test + ": ");
for (int i = 0; i < test; i++)
{
omnitree_linked.Add(i);
}
omnitree_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitree_linked.Count);
// Traversal
Console.Write(" Traversal [ALL]: ");
omnitree_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Look Up 1
Console.Write(" Traversal [(" + (test / 2) + ", " + (test / 2) + ", " + (test / 2) + ")->(" + test + ", " + test + ", " + test + ")]: ");
omnitree_linked.Stepper((int current) => { Console.Write(current); },
test / 2, test,
test / 2, test,
test / 2, test);
Console.WriteLine();
// Look Up 2
Console.Write(" Look Up [" + (test / 3) + ", " + (test / 3) + ", " + (test / 3) + "]: ");
omnitree_linked[(test / 3), (test / 3), (test / 3)]((int current) => { Console.Write(current); });
Console.WriteLine();
// Removal
Console.Write(" Remove 0-" + test / 3 + ": ");
omnitree_linked.Remove(
0, test / 3,
0, test / 3,
0, test / 3);
omnitree_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitree_linked.Count);
// Clear
Console.Write(" Clear: ");
omnitree_linked.Clear();
omnitree_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitree_linked.Count);
// Saving to a file
//string omnitreelinked_file = "omnitree_linkedlinkedlists." + ToExtension(omnitree_linked.GetType());
//Console.WriteLine(" File: \"" + omnitreelinked_file + "\"");
//Console.WriteLine(" Serialized: " + Serialize(omnitreelinked_file, omnitree_linked));
//OmnitreeLinkedLinkedLists<int, double> deserialized_omnitreeLinked;
//Console.WriteLine(" Deserialized: " + Deserialize(omnitreelinked_file, out deserialized_omnitreeLinked));
Console.WriteLine();
//Console.WriteLine(" Testing Omnitree_LinkedArrayLists<int, double>--------");
//// Construction
//Omnitree<int, double> omnitree_array = new OmnitreeLinkedArray<int, double>(
// new double[] { -test - 1, -test - 1, -test - 1 }, // minimum dimensions of the omnitree
// new double[] { test + 1, test + 1, test + 1 }, // maximum dimensions of the omnitree
// (int index) => { return Accessor.Get(new double[] { index, index, index }); }, // "N-D" location function
// Compute<double>.Compare, // comparison function
// (double a, double b) => { return (a + b) / 2; }); // average function
//// Properties
//Console.WriteLine(" Origin: [" + omnitree_array.Origin(0) + ", " + omnitree_array.Origin(1) + ", " + omnitree_array.Origin(2) + "]");
//Console.WriteLine(" Minimum: [" + omnitree_array.Min(0) + ", " + omnitree_array.Min(1) + ", " + omnitree_array.Min(2) + "]");
//Console.WriteLine(" Maximum: [" + omnitree_array.Max(0) + ", " + omnitree_array.Max(1) + ", " + omnitree_array.Max(2) + "]");
//Console.WriteLine(" Dimensions: " + omnitree_array.Dimensions);
//Console.WriteLine(" Count: " + omnitree_array.Count);
//// Addition
//Console.Write(" Adding 0-" + test + ": ");
//for (int i = 0; i < test; i++)
// omnitree_array.Add(i);
//omnitree_array.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//Console.WriteLine(" Count: " + omnitree_array.Count);
//// Traversal
//Console.Write(" Traversal [ALL]: ");
// omnitree_array.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//// Look Up
//Console.Write(" Traversal [" + (test / 2) + "-" + test + "]: ");
// omnitree_array.Stepper((int current) => { Console.Write(current); },
// new double[] { test / 2, test / 2, test / 2 },
// new double[] { test, test, test });
//Console.WriteLine();
//// Removal
//Console.Write(" Remove 0-" + test / 3 + ": ");
//omnitree_array.Remove(
// new double[] { 0, 0, 0 },
// new double[] { test / 3, test / 3, test / 3 });
//omnitree_array.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//Console.WriteLine(" Count: " + omnitree_array.Count);
//// Clear
//Console.Write(" Clear: ");
//omnitree_array.Clear();
// omnitree_array.Stepper((int current) => { Console.Write(current); });
//Console.WriteLine();
//Console.WriteLine(" Count: " + omnitree_array.Count);
//// Saving to a file
////string omnitreearray_file = "omnitree_linkedarraylists." + ToExtension(omnitree_array.GetType());
////Console.WriteLine(" File: \"" + omnitreearray_file + "\"");
////Console.WriteLine(" Serialized: " + Serialize(omnitreearray_file, omnitree_array));
////OmnitreeLinkedLinkedLists<int, double> deserialized_omnitreearray;
////Console.WriteLine(" Deserialized: " + Deserialize(omnitreearray_file, out deserialized_omnitreearray));
//Console.WriteLine();
}
#endregion
#region OmnitreeBounds
{
Console.WriteLine(" Testing OmnitreeBoundsLinked<int, double>-------");
// Construction
OmnitreeBounds <int, double, double, double> omnitreeBounds_linked = new OmnitreeBoundsLinked <int, double, double, double>(
(int index,
out double min1, out double max1,
out double min2, out double max2,
out double min3, out double max3) =>
{
min1 = index; max1 = index;
min2 = index; max2 = index;
min3 = index; max3 = index;
});
// Properties
Console.WriteLine(" Dimensions: " + omnitreeBounds_linked.Dimensions);
Console.WriteLine(" Count: " + omnitreeBounds_linked.Count);
// Addition
Console.Write(" Adding 0-" + test + ": ");
for (int i = 0; i < test; i++)
{
omnitreeBounds_linked.Add(i);
}
omnitreeBounds_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitreeBounds_linked.Count);
// Traversal
Console.Write(" Traversal [ALL]: ");
omnitreeBounds_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
// Look Up 1
//Console.Write(" Traversal [(" + (test / 2) + ", " + (test / 2) + ", " + (test / 2) + ")->(" + test + ", " + test + ", " + test + ")]: ");
//omnitreeBounds_linked.Stepper((int current) => { Console.Write(current); },
// test / 2, test,
// test / 2, test,
// test / 2, test);
//Console.WriteLine();
// Removal
Console.Write(" Remove 0-" + test / 3 + ": ");
omnitreeBounds_linked.RemoveOverlapped(
0, test / 3,
0, test / 3,
0, test / 3);
omnitreeBounds_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitreeBounds_linked.Count);
// Clear
Console.Write(" Clear: ");
omnitreeBounds_linked.Clear();
omnitreeBounds_linked.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Count: " + omnitreeBounds_linked.Count);
Console.WriteLine();
}
#endregion
#region KD Tree
////List<KdTreeNode<float, string>> testNodes = new List_Linked<KdTreeNode<float, string>>();
//KdTree_Linked<string, float> tree = new KdTree_Linked<string, float>(
// 2,
// Logic.compare,
// float.MinValue,
// float.MaxValue,
// 0,
// Arithmetic.Add,
// Arithmetic.Subtract,
// Arithmetic.Multiply);
//List<KdTree_Linked<string, float>.Node> testNodes =
// new List_Linked<KdTree_Linked<string, float>.Node>
//{
// new KdTree_Linked<string, float>.Node(new float[] { 5, 5 }, "Root"),
// new KdTree_Linked<string, float>.Node(new float[] { 2.5f, 2.5f }, "Root-Left"),
// new KdTree_Linked<string, float>.Node(new float[] { 7.5f, 7.5f }, "Root-Right"),
// new KdTree_Linked<string, float>.Node(new float[] { 1, 10 }, "Root-Left-Left"),
// new KdTree_Linked<string, float>.Node(new float[] { 10, 10 }, "Root-Right-Right")
//};
//foreach (var node in testNodes)
// if (!tree.Add(node.Point, node.Value))
// throw new Exception("Failed to add node to tree");
//var nodesToRemove = new KdTreeNode<float, string>[] {
// testNodes[1], // Root-Left
// testNodes[0] // Root
//};
//foreach (var nodeToRemove in nodesToRemove)
//{
// tree.RemoveAt(nodeToRemove.Point);
// testNodes.Remove(nodeToRemove);
// Assert.IsNull(tree.FindValue(nodeToRemove.Value));
// Assert.IsNull(tree.FindValueAt(nodeToRemove.Point));
// foreach (var testNode in testNodes)
// {
// Assert.AreEqual(testNode.Value, tree.FindValueAt(testNode.Point));
// Assert.AreEqual(testNode.Point, tree.FindValue(testNode.Value));
// }
// Assert.AreEqual(testNodes.Count, tree.Count);
//}
#endregion
#region Graph
Console.WriteLine(" Testing Graph_SetOmnitree<int>-------------");
Graph <int> graph = new GraphSetOmnitree <int>(Compute.Equal, Compute.Compare, Hash.Default);
// add nodes
for (int i = 0; i < test; i++)
{
graph.Add(i);
}
// add edges
for (int i = 0; i < test - 1; i++)
{
graph.Add(i, i + 1);
}
Console.Write(" Traversal: ");
graph.Stepper((int current) => { Console.Write(current); });
Console.WriteLine();
Console.WriteLine(" Edges: ");
//((Graph_SetQuadtree<int>)graph)._edges.Foreach((Graph_SetQuadtree<int>.Edge e) => { Console.WriteLine(" " + e.Start + " " + e.End); });
graph.Stepper(
(int current) =>
{
Console.Write(" " + current + ": ");
graph.Neighbors(current,
(int a) =>
{
Console.Write(a);
});
Console.WriteLine();
});
Console.WriteLine();
#endregion
Console.WriteLine("============================================");
Console.WriteLine("Examples Complete...");
Console.ReadLine();
}
public void AddBlock(object source)
{
blockSet.Add(source, null);
}
//Resolves the battle at planet p, if there is one.
//* Removes all fleets involved in the battle
//* Sets the number of ships and owner of the planet according the outcome
private void FightBattle(Planet p)
{
Map<int, int> participants = new TreeMap<int, int>();
participants.put(p.Owner, p.NumShips);
bool doBattle = false;
//PORT: Deleting items from iterators is not allowed.
// converted to deletable for loop
for (int fleetIndex = 0; fleetIndex < Fleets.Count; )
{
Fleet fl = Fleets[fleetIndex];
if (fl.TurnsRemaining <= 0 && fl.DestinationPlanet == p.PlanetID)
{
int attackForce;
doBattle = true;
if (participants.TryGetValue(fl.Owner, out attackForce))
{
participants[fl.Owner] = attackForce + fl.NumShips;
}
else
{
participants.Add(fl.Owner, fl.NumShips);
}
Fleets.Remove(fl);
}
else { fleetIndex++; }
}
if (doBattle)
{
Fleet winner = new Fleet(0, 0);
Fleet second = new Fleet(0, 0);
foreach (var f in participants)
{
if (f.Value > second.NumShips)
{
if (f.Value > winner.NumShips)
{
second = winner;
winner = new Fleet(f.Key, f.Value);
}
else
{
second = new Fleet(f.Key, f.Value);
}
}
}
if (winner.NumShips > second.NumShips)
{
p.SetNumShips(winner.NumShips - second.NumShips);
p.SetOwner(winner.Owner);
}
else
{
p.SetNumShips(0);
}
}
}
//Resolves the battle at planet p, if there is one.
//* Removes all fleets involved in the battle
//* Sets the number of ships and owner of the planet according the outcome
private void FightBattle(Planet p)
{
Map <int, int> participants = new TreeMap <int, int>();
participants.put(p.Owner, p.NumShips);
bool doBattle = false;
//PORT: Deleting items from iterators is not allowed.
// converted to deletable for loop
for (int fleetIndex = 0; fleetIndex < Fleets.Count;)
{
Fleet fl = Fleets[fleetIndex];
if (fl.TurnsRemaining <= 0 && fl.DestinationPlanet == p.PlanetID)
{
int attackForce;
doBattle = true;
if (participants.TryGetValue(fl.Owner, out attackForce))
{
participants[fl.Owner] = attackForce + fl.NumShips;
}
else
{
participants.Add(fl.Owner, fl.NumShips);
}
Fleets.Remove(fl);
}
else
{
fleetIndex++;
}
}
if (doBattle)
{
Fleet winner = new Fleet(0, 0);
Fleet second = new Fleet(0, 0);
foreach (var f in participants)
{
if (f.Value > second.NumShips)
{
if (f.Value > winner.NumShips)
{
second = winner;
winner = new Fleet(f.Key, f.Value);
}
else
{
second = new Fleet(f.Key, f.Value);
}
}
}
if (winner.NumShips > second.NumShips)
{
p.SetNumShips(winner.NumShips - second.NumShips);
p.SetOwner(winner.Owner);
}
else
{
p.SetNumShips(0);
}
}
}