/// <summary>
/// Set the value of the specified node of the hierarchy.
/// if the node doesn't exist, it is created.
/// </summary>
/// <param name="path"></param>
/// <returns></returns>
public TValue this[HierarchyPath <TKey> path]
{
get
{
if (this.TryGetValue(path, out var value))
{
return(value);
}
throw new KeyNotFoundException($"path '{path}' doesn't exist or has no value");
}
set
{
bool isLocked = false;
try
{
this.writeLock.Enter(ref isLocked);
var writer = new SetOrAddNodeValueWriter <TKey, TValue, ImmutableNode <TKey, TValue> >(createNode: key => new ImmutableNode <TKey, TValue>(key));
// if the root node has changed, it substitutes the existing root node.
this.rootNode = writer.SetValue(this.rootNode, path, value);
}
finally
{
if (isLocked)
{
this.writeLock.Exit();
}
}
}
}
public void ImmutableNode_removes_child_from_clone_of_current_instance()
{
// ARRANGE
var child = new ImmutableNode <string, int>("a");
var node = new ImmutableNode <string, int>(null, 1).AddChild(child);
// ACT
var result = node.RemoveChild(child);
// ASSERT
Assert.NotSame(node, result);
Assert.True(node.HasChildNodes);
Assert.False(result.HasChildNodes);
Assert.Equal(1, result.Value);
var(found, readChild) = node.TryGetChildNode("a");
Assert.True(found);
Assert.Same(child, readChild);
(found, readChild) = result.TryGetChildNode("a");
Assert.False(found);
}
public void ImmutableNode_adds_child_to_clone_of_current_instance()
{
// ARRANGE
var child = new ImmutableNode <string, int>("a");
var node = new ImmutableNode <string, int>();
node.SetValue(1);
// ACT
var result = node.AddChild(child);
// ASSERT
// node creates a clone with the new child.
Assert.NotSame(node, result);
Assert.False(node.HasChildNodes);
Assert.True(result.HasChildNodes);
Assert.True(result.HasValue);
Assert.Equal(1, result.Value);
Assert.Same(child, result.ChildNodes.Single());
var(found, addedChild) = node.TryGetChildNode("a");
Assert.False(found);
(found, addedChild) = result.TryGetChildNode("a");
Assert.True(found);
Assert.Same(child, addedChild);
}
public void ImmutableNode_replaces_child_in_clone_current_instance()
{
// ARRANGE
var child = new ImmutableNode <string, int>("a");
var node = new ImmutableNode <string, int>().AddChild(child);
node.SetValue(1);
var secondChild = new ImmutableNode <string, int>("a");
// ACT
var result = node.ReplaceChild(child, secondChild);
// ASSERT
Assert.NotSame(node, result);
Assert.True(node.HasChildNodes);
Assert.True(result.HasChildNodes);
Assert.Equal(1, result.Value);
var(found, readChildNode) = node.TryGetChildNode("a");
Assert.True(found);
Assert.Same(child, readChildNode);
(found, readChildNode) = result.TryGetChildNode("a");
Assert.True(found);
Assert.Same(secondChild, readChildNode);
}
private bool TryUseTupleSyntax(IReadOnlyList <MetadataTypeReference> args, out ImmutableNode <string> tupleSyntax)
{
var tupleElements = new List <MetadataTypeReference>(args.Count);
while (args.Count == 8)
{
if (!(args[7] is GenericInstantiationTypeReference genericRest && IsValueTuple(genericRest, minArgs: 1)))
{
tupleSyntax = null;
return(false);
}
for (var i = 0; i < 7; i++)
{
tupleElements.Add(args[i]);
}
args = genericRest.GenericTypeArguments;
}
for (var i = 0; i < args.Count; i++)
{
tupleElements.Add(args[i]);
}
var current = new ImmutableNode <string>(tupleElements[tupleElements.Count - 1].Accept(this), ")", null);
for (var i = tupleElements.Count - 2; i >= 0; i--)
{
current = new ImmutableNode <string>(tupleElements[i].Accept(this), ", ", current);
}
tupleSyntax = new ImmutableNode <string>(null, "(", current);
return(true);
}
private static ImmutableNode <string> BuildNameWithArity(string rawName)
{
var(name, arity) = NameUtils.ParseGenericArity(rawName);
var arityBuilder = (ImmutableNode <string>)null;
if (arity != 0)
{
arityBuilder = GenericParameterListEnd;
for (var i = 1; i < arity; i++)
{
arityBuilder = new ImmutableNode <string>(null, ",", arityBuilder);
}
arityBuilder = new ImmutableNode <string>(null, "<", arityBuilder);
}
return(new ImmutableNode <string>(null, name, arityBuilder));
}
/// <summary>
/// Removes the specifed node fro the hierarchy. If the node has child nodes and
/// <paramref name="recurse"/> is true, the complete subnode is removed.
/// If recurse is specified removal fails if teh node has subnodes.
/// </summary>
/// <param name="path"></param>
/// <param name="recurse">Indicats if the removal contains ths subnodes</param>
/// <returns>true, if nod (and subnodes) has been removed, false otherwise</returns>
public bool RemoveNode(HierarchyPath <TKey> path, bool recurse)
{
bool isLocked = false;
try
{
this.writeLock.Enter(ref isLocked);
if (path.IsRoot)
{
if (!recurse && this.rootNode.HasChildNodes)
{
// is recurse is not set, the root node can be exhanged if the root has no child nodes
return(false);
}
this.rootNode = new ImmutableNode <TKey, TValue>();
return(true);
}
else
{
// this isn't a special case.
// use the hierachy writer for inner nodes
var writer = new RemoveNodeHierarchyWriter <TKey, ImmutableNode <TKey, TValue> >();
var resultRootNode = writer.RemoveNode(this.rootNode, path, recurse, out var nodeWasRemoved);
if (!object.ReferenceEquals(resultRootNode, rootNode))
{
this.rootNode = resultRootNode;
}
return(nodeWasRemoved);
}
}
finally
{
if (isLocked)
{
this.writeLock.Exit();
}
}
}
/// <summary>
/// Adds a value to the immutable hierarchy at the specified position.
/// </summary>
/// <param name="path">Specifies where to set the value</param>
/// <param name="value">the value to keep</param>
/// <returns>returns this</returns>
public void Add(HierarchyPath <TKey> path, TValue value)
{
bool isLocked = false;
try
{
this.writeLock.Enter(ref isLocked);
var writer = new SetOrAddNodeValueWriter <TKey, TValue, ImmutableNode <TKey, TValue> >(createNode: key => new ImmutableNode <TKey, TValue>(key));
// if the root node has changed, it substitutes the existing root node.
this.rootNode = writer.AddValue(this.rootNode, path, value);
}
finally
{
if (isLocked)
{
this.writeLock.Exit();
}
}
}
public void ImmutableNode_fails_on_replacing_unknown_child()
{
// ARRANGE
var child = new ImmutableNode <string, int>("a");
var node = new ImmutableNode <string, int>(null).AddChild(child);
var secondChild = new ImmutableNode <string, int>("b");
// ACT
var result = Assert.Throws <InvalidOperationException>(() => node.ReplaceChild(child, secondChild));
// ASSERT
Assert.Equal("Key of child to replace (key='a') and new child (key='b') must be equal", result.Message);
Assert.True(node.HasChildNodes);
Assert.Same(child, node.ChildNodes.Single());
var(found, addedChild) = node.TryGetChildNode("a");
Assert.True(found);
Assert.Same(child, addedChild);
}
/// <summary>節点の番号を返す</summary>
/// <param name="node">節点オブジェクト</param>
/// <returns>節点の番号</returns>
private int getNodeIndex(ImmutableNode node)
{
for (int i = 0; i < nodes.Count; i++)
{
if (nodes[i].Equals(node)) return i;
}
return -1;
}
/// <summary>節点を返す</summary>
/// <param name="node">読み取り専用節点</param>
/// <returns>節点</returns>
private Node getNode(ImmutableNode node)
{
foreach (Node nd in nodes)
{
if (nd.Equals(node)) return nd;
}
return null;
}
/// <summary>節点にエネルギーを設定する</summary>
/// <param name="potential">エネルギー</param>
/// <param name="node">節点</param>
public void SetPotential(double potential, ImmutableNode node)
{
int index = getNodeIndex(node);
if (index != -1) SetPotential(potential, index);
}
/// <summary>外部の系への流出流量を節点に設定する</summary>
/// <param name="externalFlow">外部の系への流出流量</param>
/// <param name="node">節点</param>
public void SetExternalFlow(double externalFlow, ImmutableNode node)
{
int index = getNodeIndex(node);
if (index != -1) SetExternalFlow(externalFlow, index);
}
/// <summary>境界条件ノードか否かを設定する</summary>
/// <param name="isBoundaryNode">境界条件ノードか否か</param>
/// <param name="node">節点</param>
public void SetBoundaryNode(bool isBoundaryNode, ImmutableNode node)
{
int index = getNodeIndex(node);
if (index != -1) SetBoundaryNode(isBoundaryNode, index);
}
/// <summary>節点を削除する</summary>
/// <param name="node">節点</param>
public void RemoveNode(ImmutableNode node)
{
Node nd = getNode(node);
//節点に接続されている流路を削除
ImmutableChannel[] cnls = nd.GetChannels();
foreach (ImmutableChannel cnl in cnls) DisconnectNodes(cnl);
//リストから削除
nodes.Remove(nd);
//IDを詰める
foreach (Node nod in nodes)
{
if (nod.ID == (nodes.Count - 1)) nod.ID = nd.ID;
}
//イベント通知
if (NodeRemoveEvent != null) NodeRemoveEvent(this, new NodeEventArgs(nd));
}
protected override void Init(MyObjectBuilder_DefinitionBase builder)
{
base.Init(builder);
var def = (MyObjectBuilder_BendyComponentDefinition)builder;
#region Config
Layer = def.Layer;
if (string.IsNullOrWhiteSpace(Layer))
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} has {nameof(Layer)} that is null or whitespace",
LogSeverity.Error);
}
var nodes = new ImmutableNode[def.Nodes?.Length ?? 0];
if (def.Nodes != null)
{
for (var i = 0; i < def.Nodes.Length; i++)
{
var n = def.Nodes[i];
var m = Matrix.CreateWorld(n.Position, n.Forward, n.Up);
if (Vector3.IsZero(m.Forward))
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} node {i} has an invalid matrix forward",
LogSeverity.Error);
}
if (Vector3.IsZero(m.Up))
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} node {i} has an invalid matrix up",
LogSeverity.Error);
}
if (Math.Abs(m.Forward.Dot(m.Up)) > 1e-3f)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} node {i} has an invalid matrix",
LogSeverity.Error);
}
nodes[i] = new ImmutableNode(m, n.Movable);
}
}
var edges = new ImmutableEdge[def.Edges?.Length ?? 0];
if (edges.Length > 0 && nodes.Length == 0)
{
throw new Exception($"Component {builder.GetId()} has edges when it has no nodes. Unrecoverable.");
}
if (def.Edges != null)
{
for (var i = 0; i < def.Edges.Length; i++)
{
var e = def.Edges[i];
var n0 = MathHelper.Clamp((int)e.From, 0, nodes.Length - 1);
var n1 = MathHelper.Clamp((int)e.To, 0, nodes.Length - 1);
if (n0 != e.From)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} edge {i} refers to an invalid from",
LogSeverity.Error);
}
if (n1 != e.To)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} edge {i} refers to an invalid to",
LogSeverity.Error);
}
var bones = e.Bones?.Split(null).Where(x => !string.IsNullOrWhiteSpace(x)).ToArray();
edges[i] = new ImmutableEdge((uint)n0, (uint)n1, e.Mode, bones != null ? new ReadOnlyList <string>(bones) : null, e.Control1, e.Control2);
}
}
Nodes = new ReadOnlyList <ImmutableNode>(nodes);
Edges = new ReadOnlyList <ImmutableEdge>(edges);
#endregion
#region Bone Meta
var tmp = new Dictionary <string, List <BoneEdgeMetadata> >();
for (var i = 0; i < Edges.Count; i++)
{
var e = Edges[i];
if (e.Bones == null || e.Bones.Count <= 0)
{
continue;
}
for (var index = 0; index < e.Bones.Count; index++)
{
var b = e.Bones[index];
List <BoneEdgeMetadata> src;
if (!tmp.TryGetValue(b, out src))
{
tmp.Add(b, src = new List <BoneEdgeMetadata>());
}
src.Add(new BoneEdgeMetadata((uint)i, index / (float)(e.Bones.Count - 1), 1f));
}
}
BoneMetadata = tmp.ToDictionary(x => x.Key, x =>
{
var totalBoneWeight = x.Value.Sum(y => y.EdgeWeight);
var dest = new List <BoneEdgeMetadata>(x.Value.Count);
foreach (var old in x.Value)
{
if (old.EdgeWeight < 0)
{
continue;
}
dest.Add(new BoneEdgeMetadata(old.Edge, old.EdgeFactor, old.EdgeWeight / totalBoneWeight));
}
return((IReadOnlyList <BoneEdgeMetadata>) new ReadOnlyList <BoneEdgeMetadata>(dest));
});
#endregion
#region Constraints
Distance = def.Distance?.Immutable() ??
new ImmutableRange <float>(RailConstants.DefaultMinLength, RailConstants.DefaultMaxLength);
if (Distance.Min > Distance.Max)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} distance has min > max",
LogSeverity.Error);
}
PreferredDistance = def.PreferredDistance ?? ((Distance.Max + Distance.Min) / 2);
MaxAngleDegrees = def.MaxAngleDegrees ?? RailConstants.DefaultMaxAngleDegrees;
if (MaxAngleDegrees < 0)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} max angle is less than zero",
LogSeverity.Error);
}
MaxGradeRatio = def.MaxGradeRatio ?? RailConstants.DefaultMaxGradeRatio;
if (MaxGradeRatio < 0)
{
MyDefinitionErrors.Add(def.Package,
$"{nameof(BendyComponentDefinition)} {builder.GetId()} max grade ratio is less than zero",
LogSeverity.Error);
}
#endregion
}
/// <summary>Circuit test 3</summary>
/// <remarks>Calculating heat transfer through a wall</remarks>
private static void circuitTest3()
{
Circuit circuit = new Circuit("Heat transfer network through wall");
//Add nodes to circuit network
ImmutableNode[] nodes = new ImmutableNode[6];
nodes[0] = circuit.AddNode(new Node("Room 1", 0));
nodes[1] = circuit.AddNode(new Node("Plywood", 17.9));
nodes[2] = circuit.AddNode(new Node("Concrete", 232));
nodes[3] = circuit.AddNode(new Node("Air gap", 0));
nodes[4] = circuit.AddNode(new Node("Rock wool", 4.2));
nodes[5] = circuit.AddNode(new Node("Room 2", 0));
//Set boundary conditions (Room air temperatures).
circuit.SetBoundaryNode(true, nodes[0]);
circuit.SetBoundaryNode(true, nodes[5]);
//Set air temperatures.
circuit.SetPotential(20, nodes[0]);
circuit.SetPotential(10, nodes[5]);
for (int i = 1; i < 5; i++) circuit.SetPotential(10, nodes[i]); //Initialize wall temperatures to 10 C.
//Connect nodes.
ImmutableChannel channel01 = circuit.ConnectNodes(nodes[0], nodes[1], new Channel("Room 1-Plywood", 174, 1));
ImmutableChannel channel12 = circuit.ConnectNodes(nodes[1], nodes[2], new Channel("Plywood-Concrete", 109, 1));
ImmutableChannel channel34 = circuit.ConnectNodes(nodes[2], nodes[3], new Channel("Concrete-Air gap", 86, 1));
ImmutableChannel channel45 = circuit.ConnectNodes(nodes[3], nodes[4], new Channel("Air gap-Rock wook", 638, 1));
ImmutableChannel channel56 = circuit.ConnectNodes(nodes[4], nodes[5], new Channel("Rock wool-Room 2", 703, 1));
CircuitSolver cSolver = new CircuitSolver(circuit);
cSolver.TimeStep = 3600;
for (int i = 0; i < nodes.Length; i++) Console.Write(nodes[i].Name + " ");
Console.WriteLine();
for (int i = 0; i < 24; i++)
{
cSolver.Solve();
Console.Write((i + 1) + "H : ");
for (int j = 0; j < nodes.Length; j++) Console.Write(nodes[j].Potential.ToString("F1") + " ");
Console.WriteLine();
}
Console.Read();
}
/// <summary>Constructor</summary>
/// <param name="node1">節点1</param>
/// <param name="node2">節点2</param>
/// <param name="channel">流路</param>
public NodeConnectionEventArgs(ImmutableNode node1, ImmutableNode node2, ImmutableChannel channel)
{
this.node1 = node1;
this.node2 = node2;
this.channel = channel;
}
public ImmutableNode <string> Visit(GenericInstantiationTypeReference genericInstantiationTypeReference)
{
var args = genericInstantiationTypeReference.GenericTypeArguments;
if (args.Count == 1 &&
genericInstantiationTypeReference.TypeDefinition is TopLevelTypeReference topLevel &&
topLevel.Name == "Nullable`1" &&
topLevel.Namespace == "System")
{
return(new ImmutableNode <string>(args[0].Accept(this), "?", null));
}
if (IsValueTuple(genericInstantiationTypeReference, minArgs: 2) && TryUseTupleSyntax(args, out var tupleSyntax))
{
return(tupleSyntax);
}
var builder = (ImmutableNode <string>)null;
var argumentsLeft = genericInstantiationTypeReference.GenericTypeArguments.Count;
void BuildNext(string typeName)
{
var(name, arity) = NameUtils.ParseGenericArity(typeName);
if (arity != 0)
{
if (argumentsLeft < arity)
{
throw new InvalidOperationException("Number of generic arguments provided does not match combined type arity.");
}
builder = new ImmutableNode <string>(null, ">", builder);
for (var i = 0; i < arity; i++)
{
argumentsLeft--;
builder = new ImmutableNode <string>(
genericInstantiationTypeReference.GenericTypeArguments[argumentsLeft].Accept(this),
i == 0 ? null : ", ",
builder);
}
builder = new ImmutableNode <string>(null, "<", builder);
}
builder = new ImmutableNode <string>(null, name, builder);
}
var currentType = genericInstantiationTypeReference.TypeDefinition;
for (; currentType is NestedTypeReference nested; currentType = nested.DeclaringType)
{
BuildNext(nested.Name);
builder = new ImmutableNode <string>(null, ".", builder);
}
topLevel = currentType as TopLevelTypeReference ??
throw new InvalidOperationException("Nested types must be declared by either a top-level type or another nested type.");
BuildNext(topLevel.Name);
if (argumentsLeft != 0)
{
throw new InvalidOperationException("Number of generic arguments provided does not match combined type arity.");
}
return(AddNamespace(topLevel, builder));
}
private ImmutableNode <string> AddNamespace(TopLevelTypeReference topLevelTypeReference, ImmutableNode <string> name)
{
return(currentNamespace == topLevelTypeReference.Namespace || string.IsNullOrEmpty(topLevelTypeReference.Namespace) ? name :
new ImmutableNode <string>(new ImmutableNode <string>(null, topLevelTypeReference.Namespace, null), ".", name));
}
/// <summary>接点への流量を取得する</summary>
/// <param name="node">接点</param>
/// <returns>接点への流量</returns>
public double GetFlow(ImmutableNode node)
{
if (node == node1) return -GetFlow();
if (node == node2) return GetFlow();
else return 0;
}
/// <summary>回路網テスト4</summary>
/// <remarks>壁体の熱流計算（潜熱変化付き）</remarks>
private static void circuitTest4()
{
Circuit circuit = new Circuit("潜熱蓄熱材を持つ床の熱流計算");
//節点追加 Initialize("", 0.350, 1600.0, mType);
ImmutableNode[] nodes = new ImmutableNode[7];
nodes[0] = circuit.AddNode(new Node("室内", 0));
nodes[1] = circuit.AddNode(new Node("フレキシブルボード", 1600.0 * 0.0165));
nodes[2] = circuit.AddNode(new Node("スミターマル20C", 0));
nodes[3] = circuit.AddNode(new Node("発熱層", 0));
nodes[4] = circuit.AddNode(new Node("スミターマル30C", 0));
nodes[5] = circuit.AddNode(new Node("ロックウール", 84.0 * 0.065));
nodes[6] = circuit.AddNode(new Node("床下", 0));
//空気温度を境界条件とする
circuit.SetBoundaryNode(true, nodes[0]);
circuit.SetBoundaryNode(true, nodes[5]);
//空気温度設定
circuit.SetPotential(20, nodes[0]);
circuit.SetPotential(10, nodes[5]);
//接続処理
ImmutableChannel channel01 = circuit.ConnectNodes(nodes[0], nodes[1], new Channel("室1-合板", 173.32, 1));
ImmutableChannel channel12 = circuit.ConnectNodes(nodes[1], nodes[2], new Channel("合板-コンクリート", 108.65, 1));
ImmutableChannel channel34 = circuit.ConnectNodes(nodes[2], nodes[3], new Channel("コンクリート-空気層", 128.86, 1));
ImmutableChannel channel45 = circuit.ConnectNodes(nodes[3], nodes[4], new Channel("空気層-ロックウール", 681.24, 1));
ImmutableChannel channel56 = circuit.ConnectNodes(nodes[4], nodes[5], new Channel("ロックウール-室2", 702.76, 1));
ImmutableChannel channel67 = circuit.ConnectNodes(nodes[5], nodes[6], new Channel("ロックウール-室2", 702.76, 1));
CircuitSolver cSolver = new CircuitSolver(circuit);
cSolver.TimeStep = 3600;
for (int i = 0; i < nodes.Length; i++) Console.Write(nodes[i].Name + " ");
Console.WriteLine();
for (int i = 0; i < 24; i++)
{
cSolver.Solve();
Console.Write((i + 1) + "H : ");
for (int j = 0; j < nodes.Length; j++) Console.Write(nodes[j].Potential.ToString("F1") + " ");
Console.WriteLine();
}
Console.Read();
}
/// <summary>回路網テスト3</summary>
/// <remarks>壁体の熱流計算</remarks>
private static void circuitTest3()
{
Circuit circuit = new Circuit("壁体の熱流計算");
//節点追加
ImmutableNode[] nodes = new ImmutableNode[6];
nodes[0] = circuit.AddNode(new Node("室1", 0));
nodes[1] = circuit.AddNode(new Node("合板", 17.9));
nodes[2] = circuit.AddNode(new Node("コンクリート", 232));
nodes[3] = circuit.AddNode(new Node("空気層", 0));
nodes[4] = circuit.AddNode(new Node("ロックウール", 4.2));
nodes[5] = circuit.AddNode(new Node("室2", 0));
//空気温度を境界条件とする
circuit.SetBoundaryNode(true, nodes[0]);
circuit.SetBoundaryNode(true, nodes[5]);
//空気温度設定
circuit.SetPotential(20, nodes[0]);
circuit.SetPotential(10, nodes[5]);
for (int i = 1; i < 5; i++) circuit.SetPotential(10, nodes[i]); //壁体内温度は10℃均一とする
//接続処理
ImmutableChannel channel01 = circuit.ConnectNodes(nodes[0], nodes[1], new Channel("室1-合板", 174, 1));
ImmutableChannel channel12 = circuit.ConnectNodes(nodes[1], nodes[2], new Channel("合板-コンクリート", 109, 1));
ImmutableChannel channel34 = circuit.ConnectNodes(nodes[2], nodes[3], new Channel("コンクリート-空気層", 86, 1));
ImmutableChannel channel45 = circuit.ConnectNodes(nodes[3], nodes[4], new Channel("空気層-ロックウール", 638, 1));
ImmutableChannel channel56 = circuit.ConnectNodes(nodes[4], nodes[5], new Channel("ロックウール-室2", 703, 1));
CircuitSolver cSolver = new CircuitSolver(circuit);
cSolver.TimeStep = 3600;
for (int i = 0; i < nodes.Length; i++) Console.Write(nodes[i].Name + ", ");
Console.WriteLine();
for (int i = 0; i < 24; i++)
{
cSolver.Solve();
Console.Write((i + 1) + "H, ");
for (int j = 0; j < nodes.Length; j++) Console.Write(nodes[j].Potential.ToString("F1") + ", ");
Console.WriteLine();
}
Console.Read();
}
/// <summary>節点を接続する</summary>
/// <param name="node1">節点1</param>
/// <param name="node2">節点2</param>
/// <param name="channel">接続に使用する流路</param>
/// <returns>接続した流路（Clone処理を行うため<paramref name="channel"/>とは異なる）</returns>
public ImmutableChannel ConnectNodes(ImmutableNode node1, ImmutableNode node2, Channel channel)
{
//節点存在確認
Node nd1 = getNode(node1);
Node nd2 = getNode(node2);
if (nd1 == null || nd2 == null) return null;
//流路を複製してIDを付与
Channel newChannel = (Channel)channel.Clone();
newChannel.ID = channels.Count;
//接続処理
newChannel.Connect(nd1, nd2);
//リストに追加
this.channels.Add(newChannel);
//イベント通知
if (NodeConnectEvent != null) NodeConnectEvent(this, new NodeConnectionEventArgs(nd1, nd2, newChannel));
return newChannel;
}
/// <summary>Constructor</summary>
/// <param name="node">節点</param>
public NodeEventArgs(ImmutableNode node)
{
this.node = node;
}
public ImmutableNode(ImmutableNode <T> prev, T value, ImmutableNode <T> next)
{
Value = value;
Prev = prev;
Next = next;
}
