protected override void SetOutputs(IGH_DataAccess da)
{
outTree = new DataTree<Point3d>();
GH_Path trunk = new GH_Path(0); // {0}
GH_Path branch = new GH_Path(); // {}\
GH_Path limb = new GH_Path();
for (int i = 0; i < particles.Count; i++)
{
IQuelea particle = particles[i];
branch = trunk.AppendElement(i);
DataTree<Point3d> particlePositionHistoryTree = particle.Position3DHistory.ToTree();
for (int j = 0; j < particlePositionHistoryTree.BranchCount; j++)
{
limb = branch.AppendElement(j);
//for (int k = particlePositionHistoryTree.Branch(j).Count - 1; k >= 0; k--)
//{
// outTree.Add(particlePositionHistoryTree.Branch(j)[k], limb);
//}
outTree.AddRange(particlePositionHistoryTree.Branch(j), limb);
}
}
da.SetDataTree(nextOutputIndex++, outTree);
}
protected override void SolveInstance(IGH_DataAccess da)
{
if (!GetInputs(da)) return;
if (reset == true)
{
trailTree = new DataTree<Point3d>();
iter = 0;
maxid = 0;
}
else
{
foreach (Amoeba amo in p.population)
{
GH_Path thispath = new GH_Path(amo.ID);
if (amo.ID > maxid)
{
trailTree.Add(amo.prev_loc, thispath);
maxid = amo.ID;
}
trailTree.Add(amo.Location, thispath);
if (trailTree.Branch(thispath).Count > history)
{
trailTree.Branch(thispath).RemoveAt(0);
}
}
foreach (int id in p._todie_id)
{
GH_Path thispath = new GH_Path(id);
trailTree.Branch(thispath).Clear();
}
iter++;
}
SetOutputs(da);
}
// Returns the head node of the conversation class
public static ConversationNode DataTreeToConversationNodes (DataTree conversationAsTree) {
ConversationNode head = null;
ConversationNode previous = null;
ConversationNode pointer;
for (int i = 0; i < conversationAsTree.Root.ChildCount; i++) {
pointer = DataNodeToConversationNode(conversationAsTree[i]);
if (head == null) {
head = pointer;
}
if (previous != null) {
previous.Next = pointer;
}
if (DEBUG) {
Debug.Log(pointer);
Debug.Log(pointer.Responses[0]);
}
previous = pointer;
}
return head;
}
public static DataTree ReadXMLAsDataTree (XmlDocument document) {
DataTree tree = new DataTree();
DataNode root = tree.Root;
// Recursive Call
ReadNode (document.DocumentElement, ref root);
return tree;
}
List<Brep> GetBrepList(Mesh terrainMesh, List<double> contourZList, DataTree<Curve> contourTree)
{
List<Brep> splittedBrepList = new List<Brep>();
Brep terrainRegion = GetTerrainRegion(terrainMesh);
int i = 0;
foreach (double z in contourZList)
{
Brep splittedBrep = terrainRegion.Faces[0].Split(contourTree.Branches[i++], doc.ModelAbsoluteTolerance);
Rhino.Geometry.Transform xform = Rhino.Geometry.Transform.PlanarProjection(new Plane(new Point3d(0, 0, z), new Vector3d(0, 0, 1)));
splittedBrep.Transform(xform);
splittedBrepList.Add(splittedBrep);
}
return splittedBrepList;
}
protected override void SolveInstance(IGH_DataAccess da)
{
if (!GetInputs(da)) return;
prop = new DataTree<double>();
int index = 0;
foreach (Amoeba amo in p.population)
{
prop.Add(amo.tempValue,new GH_Path(index));
prop.Add(PhysaSetting.gmin, new GH_Path(index));
prop.Add(PhysaSetting.gmax, new GH_Path(index));
index++;
}
SetOutputs(da);
}
private static DataTree<Brep> BrepArray2DToDatatree(Brep[][] array)
{
DataTree<Brep> tree = new DataTree<Brep>();
GH_Path trunk = new GH_Path();
for (int i = 0; i < array.Length; i++)
{
GH_Path branch = trunk.AppendElement(i);
for (int j = 0; j < array[i].Length; j++)
{
tree.Add(array[i][j], branch);
}
}
return tree;
}
public static DataTree<Polyline> makeTiles(Mesh mesh)
{
DataTree < Polyline> Tree = new DataTree<Polyline>();
for(int i = 0;i < mesh.Faces.Count;i++)
{
Vector3d ab = new Vector3d (mesh.Vertices[mesh.Faces[i].B] - mesh.Vertices[mesh.Faces[i].A]);
Vector3d ac = new Vector3d (mesh.Vertices[mesh.Faces[i].C] - mesh.Vertices[mesh.Faces[i].A]);
Point3dList pts = new Point3dList();
pts.Add(mesh.Vertices[mesh.Faces[i].A]);
pts.Add(mesh.Vertices[mesh.Faces[i].C]);
pts.Add(mesh.Vertices[mesh.Faces[i].B]);
Polyline edge = new Polyline(pts);
Tree.Add(edge);
}
return Tree;
}
public void CreateIndentedNodes_basic()
{
m_DataTree = new DataTree();
m_Slice = GenerateSlice(Cache, m_DataTree);
// Data taken from a running Sena 3
var caller = CreateXmlElementFromOuterXmlOf("<part ref=\"AsLexemeForm\" label=\"Lexeme Form\" expansion=\"expanded\"><indent><part ref=\"IsAbstractBasic\" label=\"Is Abstract Form\" visibility=\"never\" /><!-- could use 'ifTrue' if we had it --><part ref=\"MorphTypeBasic\" visibility=\"ifdata\" /><part ref=\"PhoneEnvBasic\" visibility=\"ifdata\" /><part ref=\"StemNameForLexemeForm\" visibility=\"ifdata\" /></indent></part>");
var obj = Cache.ServiceLocator.GetInstance <IMoStemAllomorphFactory>().Create();
const int indent = 0;
int insPos = 1;
var path = GeneratePath();
var reuseMap = new ObjSeqHashMap();
// Data taken from a running Sena 3
var node = CreateXmlElementFromOuterXmlOf("<slice field=\"Form\" label=\"Form\" editor=\"multistring\" ws=\"all vernacular\" weight=\"light\" menu=\"mnuDataTree-LexemeForm\" contextMenu=\"mnuDataTree-LexemeFormContext\" spell=\"no\"><properties><bold value=\"on\" /><fontsize value=\"120%\" /></properties></slice>");
m_Slice.CreateIndentedNodes(caller, obj, indent, ref insPos, path, reuseMap, node);
}
private AjaxResult Find(string controller, string query)
{
if (string.IsNullOrEmpty(query))
{
throw new RuntimeException("Query missing from find request.");
}
if (string.IsNullOrEmpty(controller))
{
throw new RuntimeException("Controller missing from find request.");
}
DBQuery dbQuery = GetQuery(controller, query);
ApplyQueryParameters(dbQuery);
DataTree result = (DataTree)dbQuery.FindAsync().Result;
return(new AjaxResult(result));
}
private IMongoQuery GetSQLCollectionConditionQuery(DataTree schemaCollection)
{
IMongoQuery query = new QueryDocument(BsonDocument.Parse("{}"));;
string condition = schemaCollection["collection"]["SQLfilter"];
if (!string.IsNullOrEmpty(condition))
{
try
{
query = new QueryDocument(BsonDocument.Parse(condition));
}
catch (Exception ex)
{
logger.LogError("Failed to parse JSON when determining caching query", ex.Message, condition);
}
}
return(query);
}
/// <summary/>
public override void TestTearDown()
{
if (m_Slice != null)
{
m_Slice.Dispose();
m_Slice = null;
}
if (m_DataTree != null)
{
m_DataTree.Dispose();
m_DataTree = null;
}
if (m_Mediator != null)
{
m_Mediator.Dispose();
m_Mediator = null;
}
base.TestTearDown();
}
public static DataTree <T> IE <T>(IEnumerable <T> list, int iteration = 0)
{
DataTree <T> tree = new DataTree <T>();
if (iteration == -1)
{
int count = 0;
foreach (var t in list)
{
tree.Add(t, new GH_Path(count));
count++;
}
}
else
{
tree.AddRange(list, new GH_Path(new int[] { iteration }));
}
return(tree);
}
public static DataTree <T> TripleArraysToTree <T>(T[][][] arrays, int iteration = 0)
{
DataTree <T> tree = new DataTree <T>();
int i = 0;
foreach (var a in arrays)
{
int j = 0;
foreach (var b in a)
{
if (b != null)
{
tree.AddRange(b, new GH_Path(new[] { iteration, i, j }));
}
j++;
}
i++;
}
return(tree);
}
public DataTree <double> DefToTree(Vector <double> u, List <Node> nodes)
{
DataTree <double> defTree = new DataTree <double>();
int n = 0;
for (int i = 0; i < u.Count; i += 3)
{
List <double> u_node = new List <double>(3);
u_node.Add(u[i]);
u_node.Add(u[i + 1]);
u_node.Add(u[i + 2]);
//sett til riktig node, ta hensyn til de vi har fjernet.
nodes[i / 3].SetDeformation(u_node);
defTree.AddRange(u_node, new GH_Path(new int[] { 0, n }));
n++;
}
return(defTree);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
var bodyData = new List <HumanBody>();
DA.GetDataList(0, bodyData);
var jointTree = new DataTree <System.Object>();
for (var i = 0; i < bodyData.Count; i++)
{
var body = bodyData[i];
var path = new GH_Path(i);
for (var j = 0; j < body.joints.Count; j++)
{
jointTree.Insert(body.joints[j].Position, path, j);
}
}
DA.SetDataTree(0, jointTree);
}
public gen_core(int core_min_width, int core_min_height, Rectangle3d skin, int max_core_count, double efficiency, double deviation, bool allow_core_variation)
{
this.core_min_width = core_min_width;
this.core_min_height = core_min_height;
this.skin = skin;
this.max_core_count = max_core_count;
this.efficiency = efficiency;
this.deviation = deviation;
this.allow_core_variation = allow_core_variation;
this.locations = new List <Point3d>();
this.values = new DataTree <int>();
this.cores = new List <Rectangle3d>();
this.valid_cores = new DataTree <Rectangle3d>();
this.valid_core_combinations = new List <List <int> >();
this.valid_core_locations = new List <List <int> >();
this.core_area = this.skin.Area * this.efficiency;
compute();
}
async Task LoadStoreAsync(string type)
{
if (!_dataTreeAddresses.ContainsKey(type))
{
throw new InvalidOperationException($"Store does not exist! {type}");
}
// check if already loaded? or is this a refresh function also?
Task onHeadChange(MdLocator newXOR) => UpdateTypeStores(type, newXOR);
var headResult = await MdAccess.LocateAsync(_dataTreeAddresses[type]).ConfigureAwait(false);
if (!headResult.HasValue)
{
throw new Exception($"Error code: {headResult.ErrorCode.Value}. {headResult.ErrorMsg}");
}
var dataTree = new DataTree(headResult.Value, onHeadChange);
_dataTreeCache[type] = dataTree;
}
private static DataTree <object> ConvertLawsonToDataTree(Dictionary <string, List <int> > data)
{
var patchCounter = 0;
var output = new DataTree <object>();
foreach (var patchKey in data.Keys)
{
var points = data[patchKey];
var path = new GH_Path(patchCounter);
foreach (var value in points)
{
output.Add(value, path);
}
patchCounter++;
}
return(output);
}
public DataTree <int> SequenceNeighbours(Mesh M, List <int> O, int S)
{
List <int>[] ff = M.GetNgonFaceAdjacencyOrdered();
DataTree <int> dtsequence = new DataTree <int>();
DataTree <int> dtsequenceConnected = new DataTree <int>();
HashSet <int> sequence = new HashSet <int>();
for (int i = 0; i < O.Count; i++)
{
//Get current outlines
List <int> cf = ff[O[i]];
//Get current outlines already connected and skip not connected
List <int> cfPlaced = new List <int>(cf.Count);
foreach (int j in cf)
{
if (sequence.Contains(j))
{
cfPlaced.Add(j);
dtsequenceConnected.Add(j, new GH_Path(i));
}
}
sequence.Add(O[i]);
dtsequence.Add(O[i], new GH_Path(i));
if (i == S)
{
break;
}
}
//O_ = dtsequence;
//N = dtsequenceConnected;
return(dtsequenceConnected);
}
}//eof
/// <summary>
/// This is the method that actually does the work.
/// </summary>
protected override void SolveInstance(IGH_DataAccess DA)
{
List<Curve> crv = new List<Curve>();
if (!DA.GetDataList(0, crv)) return;
DataTree<Curve> r = new DataTree<Curve>();
for (int i = 0; i < crv.Count; ++i)
{
if (!isChildOfCrv(crv[i], crv))
{
GH_Path p = new GH_Path(0);
r.Add(crv[i], p);
}
}
bool isAnyCrvAligned = true;
while (isAnyCrvAligned)
{
isAnyCrvAligned = false;
int BC = r.BranchCount;
for (int i = 0; i < BC; ++i)
{
for (int j = 0; j < crv.Count; ++j)
{
if (r.AllData().IndexOf(crv[j]) == -1)
{
GH_Path p = new GH_Path(i + 1);
if (isChildOfCrv(crv[j], r.Branch(i)))
{
r.Add(crv[j], p);
isAnyCrvAligned = true;
}
}
}
}
}
DA.SetDataTree(0, r);
}//eof
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
treeGoo treeg = new treeGoo();
DA.GetData(0, ref treeg);
TreeStructure t = null;
double tn, sn, an, pie;
tn = sn = an = pie = 0;
Point3d cen = new Point3d();
DA.GetData(0, ref t);
DA.GetData("Center", ref cen);
DA.GetData("Domain", ref pie);
DA.GetData("TN", ref tn);
DA.GetData("AN", ref sn);
DA.GetData("SN", ref an);
var dom = new Interval((pie - 1) * Math.PI / 2, (3 - pie) * Math.PI / 2);
var arcs = Enumerable.Range(0, t.Depth + 1).Select(i =>
new Arc(new Circle(cen, sn * Math.Pow(i, tn) + an), dom)).ToList();
var layers = treeg.Value.GetLayers(arcs.Select(i => i.ToNurbsCurve()));
var Pointset = new DataTree <GeoNode>();
var TigSet = new DataTree <Curve>();
foreach (var gLayer in layers)
{
var path = new GH_Path(gLayer.Level);
Pointset.AddRange(gLayer.ToList(), path);
TigSet.AddRange(gLayer.Draw(), path);
}
TigSet.RemovePath(TigSet.Paths.Last());
DA.SetDataTree(0, TigSet);
DA.SetDataTree(1, Pointset);
var m = layers.ByOuterMosts();
DA.SetDataList(2, m[GLayerSet.dets.Outermodes]);
DA.SetDataList(3, m[GLayerSet.dets.InMiddles]);
DA.SetDataList(4, m[GLayerSet.dets.Invalid]);
}
public static DataTree <int> _GraphColorHalfEdges(this Mesh M, int numberOfColors = 2)
{
var graph = new Advanced.Algorithms.DataStructures.Graph.AdjacencyList.Graph <int>();
var V = M._FEFlattenV();
foreach (var v in V)
{
graph.AddVertex(v);
}
var E = M._eehalf();
foreach (var edges in E)
{
foreach (var e in edges)
{
if (!graph.HasEdge(e[0], e[1]))
{
graph.AddEdge(e[0], e[1]);
}
}
}
MColorer <int, string> algorithm = new MColorer <int, string>();
MColorResult <int, string> result = algorithm.Color(graph, Letters(numberOfColors));
DataTree <int> dtResult = new DataTree <int>();
if (result.Partitions != null)
{
int counter = 0;
foreach (KeyValuePair <string, List <int> > p in result.Partitions)
{
dtResult.AddRange(p.Value, new GH_Path(counter++));
}
}
return(dtResult);
}
private bool FilterDocumentByDate(DataTree reportDocument)
{
if (!reportDocument.Contains("date"))
{
return(false);
}
DateTime date = (DateTime)reportDocument["date"];
if (start.HasValue && date < start)
{
return(false);
}
if (end.HasValue && date > end)
{
return(false);
}
return(true);
}
/// <summary>
/// Creates directory recursive. Path with filename can be passed if file has extension.
/// </summary>
public static bool CreateDirectory(string path, DataTree <string> error)
{
if (path.IsNullOrWhiteSpace())
{
error.Add("Path is empty."); return(false);
}
try
{
if (!Path.GetExtension(path).IsNullOrEmpty())
{
path = Path.GetDirectoryName(path);
}
if (Directory.Exists(path))
{
return(true);
}
Directory.CreateDirectory(path);
return(true);
}
catch (Exception ex) { error.Add($"Exception creating directory {path}: {ex.Message}"); return(false); }
}
/// <summary>
/// Checks if file exists
/// </summary>
public static bool Exists(string filepath, DataTree <string> error)
{
try
{
Path.GetFullPath(filepath);
if (filepath.IsNullOrWhiteSpace())
{
throw new ExpectedException($"Filename argument is null({filepath == null}) or empty({filepath == null})");
}
if (!File.Exists(filepath))
{
throw new ExpectedException($"File {filepath} doesn't exist");
}
return(true);
}
catch (Exception ex)
{
error.Add(ex.Message);
return(false);
}
}
/// <summary>
/// Invalidate entries for this day's entry and user.
/// </summary>
/// <param name="entry"></param>
public void InvalidateCacheEntry(DataTree entry)
{
logger.LogTrace("Invalidating cached entry", entry);
if (!documents.ContainsKey(entry["_id"]))
{
return;
}
DataTree cachedEntry = documents[entry["_id"]];
// day
// entries
// timesheetentry
//
DataTree day = entry.Parent.Parent.Parent;
logger.LogTrace("Invalidating day from cache", day);
InvalidateDay(day);
}
private DataTree <Mesh> GetDeformedMeshes(double scale, ref List <string> msg)
{
var oMeshes = new DataTree <Mesh>();
// Same tree structure as displacements
foreach (var path in _meshdisplacements.Paths)
{
var gh_path = new GH_Path(path);
var mesh_path = new GH_Path(path.Indices[0]);
// Get fe mesh as starting mesh
var mesh = _feMeshes.Branch(mesh_path)[0].DuplicateMesh();
// Move FE Nodes according to displacements
for (int i = 0; i < mesh.Vertices.Count; i++)
{
mesh.Vertices[i] += (Point3f)(Point3d)(scale * _meshdisplacements.Branch(path)[i]); // -_-
}
// Add mesh to tree
oMeshes.Add(mesh, gh_path);
}
return(oMeshes);
}
/// <summary>
///
/// </summary>
/// <param name="parent"></param>
public override void Install(DataTree parent)
{
CheckDisposed();
base.Install(parent);
MSADlgLauncher ctrl = (MSADlgLauncher)Control;
this.Size = new System.Drawing.Size(208, 32);
ctrl.Initialize((FdoCache)Mediator.PropertyTable.GetValue("cache"),
Object,
1, // Maybe need a real flid?
"InterlinearName",
ContainingDataTree.PersistenceProvder,
Mediator,
"InterlinearName",
XmlUtils.GetOptionalAttributeValue(m_configurationNode, "ws", "analysis")); // TODO: Get better default 'best ws'.
MSADlglauncherView view = ctrl.MainControl as MSADlglauncherView;
view.StyleSheet = FontHeightAdjuster.StyleSheetFromMediator(Mediator);
}
private DataTree <object> CorrectMesh(
Dictionary <string, Mesh> meshes
)
{
var newMeshes = new DataTree <object>();
var j = 0;
foreach (var key in meshes.Keys)
{
var newMesh = new Mesh();
// Check mesh normal. If the normal direction is fx Z, check that the points and mesh have the same value. If not throw an error.
GH_Convert.ToMesh(meshes[key], ref newMesh, GH_Conversion.Primary);
var path = new GH_Path(j);
newMeshes.Add(newMesh, path);
j++;
}
return(newMeshes);
}
/*******************************************/
public static DataTree <T> DataTree <T>(List <IEnumerable <T> > data, int iteration, IList <GH_Path> paths)
{
DataTree <T> master = new DataTree <T>();
if (data.Count == 0)
{
master.EnsurePath(0);
return(new DataTree <T>());
}
else
{
for (int i = 0; i < data.Count; i++)
{
DataTree <T> local = new DataTree <T>(data[i], paths[iteration]);
GH_Path path = paths[iteration].AppendElement(i);
master.EnsurePath(path);
master.AddRange(data[i], path);
}
}
return(master);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
// INPUT
// declaration
string _XML = String.Empty;
List <string> _tagName = new List <string>();
DA.GetData(0, ref _XML);
DA.GetDataList(1, _tagName);
// actions
XmlDocument xmlDoc = new XmlDocument();
//declare tree
DataTree <string> intTree = new DataTree <string>();
xmlDoc.LoadXml(_XML);
if (_tagName != null)
{
try
{
//set up tree
for (int i = 0; i < _tagName.Count; i++)
{
GHD.GH_Path pth = new GHD.GH_Path(i);
var innerTextData = xmlDoc.GetElementsByTagName(_tagName[i])[0].InnerText;
intTree.Add(innerTextData, pth);
}
// output
DA.SetDataTree(0, intTree);
}
catch
{
this.AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Please provide a valid keyword.");
return;
}
}
}
// Use Nullable to distinguish from other ActionResults that get interpreted as
// MC2 actions
protected DataTree GetDefaultResults(
string rootschema,
string collection,
string valuename,
string relationtarget,
string itemid,
string filtercontroller,
string filteraction)
{
string defaultValueController = Runtime.Schema.First[collection][valuename]["defaultresultscontroller"];
string defaultValueBlock = Runtime.Schema.First[collection][valuename]["defaultresultsblock"];
string relation = Runtime.Schema.First[collection][valuename]["relation"];
if (string.IsNullOrEmpty(defaultValueController) || string.IsNullOrEmpty(defaultValueBlock))
{
return(null);
}
MC2Value result = Runtime.RunBlock(
defaultValueController,
defaultValueBlock,
collection,
valuename,
relationtarget,
itemid,
filtercontroller,
filteraction);
if (result is MC2DataTreeValue)
{
// MC2 datatree value has no name and we use the relation's target
DataTree dtResult = ((MC2DataTreeValue)result).DataTreeValue;
dtResult.Name = relation;
return(dtResult);
}
else
{
return(null);
}
}
private DataTree <Vector3d> GetMemberDisplacements(ref List <int> memberNo, ref List <string> msg)
{
// Get control points
_controlPoints.Clear();
// Save defoirmation vectors into a tree;
var oDisplacements = new DataTree <Vector3d>();
memberNo = new List <int>();
foreach (var member in _rfMembers)
{
if (member.Type == MemberType.NullMember)
{
continue;
}
// Add also control points. We are just going to get one set of control points for each curve regardless of the result type
var pts_path = new GH_Path(member.No);
_controlPoints.EnsurePath(pts_path);
var baseline = member.BaseLine.ToCurve();
// Get deformations
var memberResults = _lcresults.GetMemberDeformations(member.No, ItemAt.AtNo, MemberAxesType.GlobalAxes); // We can't sort this list
foreach (var resulttype in memberResults.Select(x => x.Type).Distinct())
{
_resultTypes.Add(resulttype);
}
var valueType = memberResults[0].Type; // Get deformation types to avoid duplicate control points
memberNo.Add(member.No);
foreach (var result in memberResults)
{
var gh_path = new GH_Path(member.No, (int)result.Type); // GET RESULT TYPES!!!
var displacement = new Vector3d(result.Displacements.ToPoint3d());
oDisplacements.Add(displacement, gh_path);
// Get control points
if (result.Type == valueType)
{
_controlPoints.Add(baseline.PointAtNormalizedLength(Math.Min(result.Location / baseline.GetLength(), 1.0)), pts_path);
}
}
}
return(oDisplacements);
}
public static DataTree <int> _GraphColorFaces(this Mesh M, int numberOfColors = 2)
{
var graph = new Advanced.Algorithms.DataStructures.Graph.AdjacencyList.Graph <int>();
List <int>[] adj = M.GetNgonFaceAdjacencyOrdered();
for (int i = 0; i < adj.Length; i++)
{
graph.AddVertex(i);
}
for (int i = 0; i < adj.Length; i++)
{
foreach (var e in adj[i])
{
if (!graph.HasEdge(i, e))
{
graph.AddEdge(i, e);
}
}
}
MColorer <int, string> algorithm = new MColorer <int, string>();
MColorResult <int, string> result = algorithm.Color(graph, Letters(numberOfColors));
DataTree <int> dtResult = new DataTree <int>();
if (result.Partitions != null)
{
int counter = 0;
foreach (KeyValuePair <string, List <int> > p in result.Partitions)
{
dtResult.AddRange(p.Value, new GH_Path(counter++));
}
}
return(dtResult);
}
private void DataTree_OnNodeExpansionChanged(object sender, NodeExpansionChangedEventArgs e)
{
var nodedata = e.Node.Data as DirectoryNode;
var id = nodedata != null ? nodedata.NodeId : 1;
if (DataTree.Equals(sender))
{
if (e.Node.IsExpanded)
{
if (!ApplicationContext.ExpandedIds.Contains(id))
{
ApplicationContext.ExpandedIds.Add(id);
}
}
else
{
if (ApplicationContext.ExpandedIds.Contains(id))
{
ApplicationContext.ExpandedIds.Remove(id);
}
}
}
else
{
if (e.Node.IsExpanded)
{
if (nodedata != null && nodedata.IsFolder && !ApplicationContext.LabelExpandedIds.Contains(id))
{
ApplicationContext.LabelExpandedIds.Add(id);
}
}
else
{
if (ApplicationContext.LabelExpandedIds.Contains(id))
{
ApplicationContext.LabelExpandedIds.Remove(id);
}
}
}
}
public MC2Value trocurrentproject(DataTree itemSchema)
{
MC2Value value = null;
if ((bool)Runtime.CurrentActionCall.Parameters["socialproject"] == true && (bool)Runtime.Config["application"]["features"]["enablesocialproject"])
{
// Todo: cache value?
if (socialProject == null)
{
socialProject = new DBQuery("tro", "getsocialproject").FindOneAsync().Result;
}
value = socialProject;
}
else if ((bool)Runtime.CurrentActionCall.Parameters["fromhomescreen"] == true)
{
// Use either provided project from url or user's project
if (Runtime.CurrentActionCall.Parameters["workscheduleprojectid"].Exists)
{
value = DBDocument.FindOne("project", Runtime.CurrentActionCall.Parameters["workscheduleprojectid"]);
}
else
{
var userQuery = new DBQuery();
userQuery["user"][DBQuery.Condition] = Query.EQ(DBQuery.Id, new ObjectId(Runtime.SessionManager.CurrentUser["_id"]))
.ToString();
DataTree currentUser = userQuery.FindOne();
value = currentUser["currentproject"];
}
}
else
{
value = MC2EmptyValue.EmptyValue;
}
return(value);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
GH_Structure <GH_Integer> Ts;
if (!DA.GetDataTree(0, out Ts))
{
return;
}
if (Ts.Branches.Count == 0)
{
return;
}
if (Ts.Branches.Count == 1)
{
DA.SetData(0, Ts);
return;
}
// converts GH_Structure in DataTree of int
DataTree <int> Td = new DataTree <int>();
for (int i = 0; i < Ts.Branches.Count; i++)
{
Td.AddRange(Ts.Branches[i].Select(n => n.Value).ToList(), Ts.Paths[i]);
}
DataTree <int> clusters = new DataTree <int>(); // tree for clusters
List <int> tP = new List <int>(); // list of branch indexes for Td
for (int i = 0; i < Td.BranchCount; i++)
{
tP.Add(i);
}
// start from first branch: call clusterize with 0 both as cb and sb
clusterize(0, 0, ref Td, ref clusters, ref tP);
DA.SetDataTree(0, clusters);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object can be used to retrieve data from input parameters and
/// to store data in output parameters.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
////////////////////////
// Retrieve crucial (fixed) input data, exit if non-existent
////////////////////////
if (!DA.GetData(0, ref clusterUrlParam)) { return; }
////////////////////////
// check if cluster was properly loaded, and if parameters are correct
// and if not, do something about it!
////////////////////////
if (loadedClusterUrlParam == null ||
loadedClusterUrlParam != clusterUrlParam)
{
AddRuntimeMessage(GH_RuntimeMessageLevel.Error, "Cluster not loaded properly - click on 'Reload Cluster' button!");
// MessageBox.Show("hey, don't we have a parameter mismatch?");
//we've got a parameter mismatch
// urge user to click on buttom to match paramcount to cluster param count
/* (this.m_attributes as Attributes_Custom).button.Palette = GH_Palette.Pink;
(this.m_attributes as Attributes_Custom).ExpireLayout();
(this.m_attributes as Attributes_Custom).PerformLayout();
NEXT STEP - HIGHLIGHT BUTTON */
}
else
{
//successful! parameters match. so - let's run this thing:
//get data from hairworm inputs, put into array
for (int i = fixedParamNumInput; i < (fixedParamNumInput + clusterParamNumInput); i++)
{
if (!DA.GetDataList(i, clusterInputLists[i - fixedParamNumInput])) { return; }
//if (!DA.GetData(i, ref clusterInput[i - fixedParamNumInput])) { return; }
// debugText += "okay, input # " + i + " is: " + clusterInputs[i - fixedParamNumInput].ToString() + "\n";
// DA.SetData(0, debugText);
}
// get data from array, input into cluster
for (int i = fixedParamNumInput; i < (fixedParamNumInput + clusterParamNumInput); i++)
{
// wormCluster.Params.Input[i - fixedParamNumInput].AddVolatileData(new GH_Path(0), 0, clusterInputs[i - fixedParamNumInput]);
wormCluster.Params.Input[i - fixedParamNumInput].AddVolatileDataList(new GH_Path(0), clusterInputLists[i - fixedParamNumInput]);
}
// RUN CLUSTER AND RECOMPUTE THIS
wormCluster.ExpireSolution(true);
// get computed data from cluster outputs, push into hairworm outputs
for (int i = fixedParamNumOutput; i < (fixedParamNumOutput + clusterParamNumOutput); i++)
{
// Create a copy of this data (the original data will be wiped)
DataTree<object> copy = new DataTree<object>();
copy.MergeStructure(wormCluster.Params.Output[i - fixedParamNumOutput].VolatileData, new Grasshopper.Kernel.Parameters.Hints.GH_NullHint());
// push into hairworm component outputs
DA.SetDataTree(i, copy);
}
DA.SetData(0, debugText);
}
DA.SetData(0, debugText);
}
DataTree<Curve> GetContourTree(Mesh mesh, List<double> contourZList)
{
DataTree<Curve> contourTree = new DataTree<Curve>();
int i = 0;
foreach (double z in contourZList)
{
Polyline[] contour = Rhino.Geometry.Intersect.Intersection.MeshPlane(mesh, new Plane(new Point3d(0, 0, z), new Vector3d(0, 0, 1)));
foreach (Polyline contourItem in contour)
{
PolylineCurve pCurve = new PolylineCurve(contourItem);
contourTree.Add(pCurve, new GH_Path(0, i));
}
i++;
}
return contourTree;
}
/// <summary>
/// This procedure contains the user code. Input parameters are provided as regular arguments,
/// Output parameters as ref arguments. You don't have to assign output parameters,
/// they will have a default value.
/// </summary>
private void RunScript(int startType, int depth, double scale, Mesh inputMesh, ref object A, ref object B)
{
Mesh mesh = new Mesh();
DataTree < Polyline> Tree = new DataTree<Polyline>();
if (startType == 0){mesh = inputMesh;}
if (startType == 1){mesh = fatC(scale);}
if (startType == 2){mesh = thinC(scale);}
if (startType == 3){mesh = fatCC();}
if (startType == 4){mesh = thinCC();}
mesh = subdiv(mesh, depth, 0);
A = makeTiles(mesh);
B = mesh;
}
DataTree<Object> GetStepTree(Mesh terrainMesh, List<double> contourZList, DataTree<Curve> contourTree, List<Brep> brepList)
{
DataTree<Object> stepTree = new DataTree<Object>();
Plane basePlane = Plane.WorldXY;
basePlane.OriginZ = terrainMesh.GetBoundingBox(true).Min.Z;
// For each contour-plane
for (int i = 0; i < contourTree.BranchCount; i++)
{
// create higher-Z pt list
Point3dList winPtList = new Point3dList();
foreach (Curve contourCrv in contourTree.Branches[i])
{
Plane frm;
double t;
contourCrv.NormalizedLengthParameter(0.5, out t);
contourCrv.FrameAt(t, out frm);
frm.Transform(Rhino.Geometry.Transform.PlanarProjection(basePlane));
Point3d samplePt0, samplePt1;
samplePt0 = frm.Origin;
samplePt1 = frm.Origin;
samplePt0 += doc.ModelAbsoluteTolerance * frm.YAxis;
samplePt1 -= doc.ModelAbsoluteTolerance * frm.YAxis;
Ray3d ray0 = new Ray3d(samplePt0, Vector3d.ZAxis);
Ray3d ray1 = new Ray3d(samplePt1, Vector3d.ZAxis);
double rayParam0 = Rhino.Geometry.Intersect.Intersection.MeshRay(terrainMesh, ray0);
double rayParam1 = Rhino.Geometry.Intersect.Intersection.MeshRay(terrainMesh, ray1);
winPtList.Add(((rayParam0 > rayParam1) ? samplePt0 : samplePt1));
}
// For each splitted region in contour-plane
foreach (BrepFace brepFace in brepList[i].Faces)
{
Brep testBrep = brepFace.DuplicateFace(false);
foreach (Point3d pt in winPtList)
{
LineCurve testRay = new LineCurve(new Line(pt, Vector3d.ZAxis, 1000));
Point3d[] outPts;
Curve[] outCrvs;
bool ix = Rhino.Geometry.Intersect.Intersection.CurveBrep(testRay, testBrep, doc.ModelAbsoluteTolerance, out outCrvs, out outPts);
if (outPts.Length != 0)
{
stepTree.Add(testBrep, new GH_Path(i));
break;
}
}
}
}
return stepTree;
}
/// <summary>
/// Default constructor.
/// </summary>
public Lattice()
{
m_nodes = new DataTree<LatticeNode>();
m_struts = new List<Curve>();
}
/// <summary>
/// Morphs cell topology to UVWI node map (morphed struts).
/// </summary>
public void MorphMapping(UnitCell cell, DataTree<GeometryBase> spaceTree, float[] N)
{
for (int u = 0; u <= N[0]; u++)
{
for (int v = 0; v <= N[1]; v++)
{
for (int w = 0; w <= N[2]; w++)
{
// We're inside a unit cell
// Loop through all pairs of nodes that make up struts
foreach (IndexPair nodePair in cell.NodePairs)
{
// Prepare the path of the nodes (path in tree)
// First, get relative paths of nodes (with respect to current unit cell)
int[] IRel = cell.NodePaths[nodePair.I];
int[] JRel = cell.NodePaths[nodePair.J];
// Next, compute absolute paths
GH_Path IPath = new GH_Path(u + IRel[0], v + IRel[1], w + IRel[2]);
GH_Path JPath = new GH_Path(u + JRel[0], v + JRel[1], w + JRel[2]);
// Make sure the cell exists
// No cells exist beyond the boundary + 1
if (Nodes.PathExists(IPath) && Nodes.PathExists(JPath))
{
LatticeNode node1 = Nodes[IPath, IRel[3]];
LatticeNode node2 = Nodes[JPath, JRel[3]];
// Make sure both nodes exist:
// Null nodes either belong to other cells, or are beyond the upper uvw boundary.
if (node1 != null && node2 != null)
{
GH_Path spacePath;
// If strut is along boundary, we must use the previous morph space
// Since one does not exist beyond the boundary)
if (u == N[0] && v == N[1])
{
spacePath = new GH_Path(u - 1, v - 1);
}
else if (u == N[0])
{
spacePath = new GH_Path(u - 1, v);
}
else if (v == N[1])
{
spacePath = new GH_Path(u, v - 1);
}
else
{
spacePath = new GH_Path(u, v);
}
// Retrieve uv cell space (will be casted in the tempPt loop)
GeometryBase ss1 = spaceTree[spacePath, 0];
GeometryBase ss2 = spaceTree[spacePath, 1];
// Discretize the unit cell line for morph mapping
int ptCount = 16;
// Template points are unitized cell points (x,y of these points are u,v of sub-surface)
var templatePts = new List<Point3d>();
Line templateLine = new Line(cell.Nodes[nodePair.I], cell.Nodes[nodePair.J]);
for (int ptIndex = 0; ptIndex <= ptCount; ptIndex++)
{
templatePts.Add(templateLine.PointAt(ptIndex / (double)ptCount));
}
// We will map the lines' points to its uvw cell-space
// Control points are the interpolation points in space
var controlPoints = new List<Point3d>();
foreach (Point3d tempPt in templatePts)
{
Point3d surfPt;
Vector3d[] surfDerivs;
// UV params on unitized sub-surface are simply the xy coordinate of the template point
double uParam = tempPt.X;
double vParam = tempPt.Y;
// If at boundary, we're using a previous morph space, so reverse the parameter(s)
if (u == N[0])
{
uParam = 1 - uParam;
}
if (v == N[1])
{
vParam = 1 - vParam;
}
// Now, we will map the template point to the uvw-space
((Surface)ss1).Evaluate(uParam, vParam, 0, out surfPt, out surfDerivs);
Vector3d wVect = Vector3d.Unset;
switch (ss2.ObjectType)
{
case ObjectType.Point:
wVect = ((Point)ss2).Location - surfPt; ;
break;
case ObjectType.Curve:
wVect = ((Curve)ss2).PointAt(uParam) - surfPt;
break;
case ObjectType.Surface:
Point3d surfPt2;
Vector3d[] surfDerivs2;
((Surface)ss2).Evaluate(uParam, vParam, 0, out surfPt2, out surfDerivs2);
wVect = surfPt2 - surfPt;
break;
}
// The mapped point
Point3d uvwPt = surfPt + wVect * (w + tempPt.Z) / N[2];
controlPoints.Add(uvwPt);
}
// Now create interpolated curve based on control points
Curve curve = Curve.CreateInterpolatedCurve(controlPoints, 3);
if (curve != null && curve.IsValid)
{
Struts.Add(curve);
}
}
}
}
}
}
}
}
public static DataTree Read(string file)
{
DataTree data = new DataTree();
throw new NotImplementedException();
}
public PositionHistoryAsDataTree(int size)
{
this.tree = new DataTree<Point3d>();
this.size = size;
this.nextPathIndex = 0;
}
void initCharacterList () {
if (characterList == null) {
characterList = DataUtil.ParseXML("Text/CharacterList");
}
}
private void RunScript(List<Mesh> x, List<int> y, List<double> z, ref object A, ref object B, ref object C,ref object D)
{
try
{
DataTree<double> output222;
if (temp.Count == 0)
{
temp = y;
for (int i = 0; i < x.Count; i++)
{
GH_Path path = new GH_Path(i);
List<Line> output11;
List<double> output22;
Point3d output33;
List<Point3d> output44;
Print(Step(x[i], y[i], 0.5, true, out output11, out output22, out output33, out output44));
output1.AddRange(output11, path);
output2.AddRange(output22, path);
output3.Add(output33, path);
output4.AddRange(output44, path);
}
}
else
{
for (int i = 0; i < y.Count; i++)
{
GH_Path path = new GH_Path(i);
if (y[i] != temp[i])
{
List<Line> output11;
List<double> output22;
Point3d output33;
List<Point3d> output44;
Print(Step(x[i], y[i], 0.5, true, out output11, out output22, out output33, out output44));
output1.Branch(path).Clear();
output1.Branch(path).AddRange(output11);
output2.Branch(path).Clear();
output2.Branch(path).AddRange(output22);
output3.Branch(path)[0] = output33;
output4.Branch(path).Clear();
output4.Branch(path).AddRange(output44);
temp[i] = y[i];
}
}
}
output222 = new DataTree<double>(output2);
for (int i = 0; i < output222.Paths.Count; i++)
{
GH_Path path = new GH_Path(i);
for(int j=0;j<output222.Branch(path).Count;j++){
output222[path, j] *= z[i];
}}
A = output1; B = output222; C = output3; D = output4;
}
catch (Exception ex)
{
Print(ex.ToString());
}
}
public static bool Write(DataTree data)
{
throw new NotImplementedException();
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object can be used to retrieve data from input parameters and
/// to store data in output parameters.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
// 1. Retrieve and validate inputs
var cell = new UnitCell();
Surface s1 = null;
Surface s2 = null;
int nU = 0;
int nV = 0;
int nW = 0;
bool morphed = false;
if (!DA.GetData(0, ref cell)) { return; }
if (!DA.GetData(1, ref s1)) { return; }
if (!DA.GetData(2, ref s2)) { return; }
if (!DA.GetData(3, ref nU)) { return; }
if (!DA.GetData(4, ref nV)) { return; }
if (!DA.GetData(5, ref nW)) { return; }
if (!DA.GetData(6, ref morphed)) { return; }
if (!cell.isValid) { return; }
if (!s1.IsValid) { return; }
if (!s2.IsValid) { return; }
if (nU == 0) { return; }
if (nV == 0) { return; }
if (nW == 0) { return; }
// 2. Initialize the lattice
var lattice = new Lattice();
// Will contain the morphed uv spaces (as surface-surface)
var spaceTree = new DataTree<GeometryBase>();
// 3. Package the number of cells in each direction into an array
float[] N = new float[3] { nU, nV, nW };
// 4. Normalize the UV-domain
Interval unitDomain = new Interval(0,1);
s1.SetDomain(0, unitDomain); // s1 u-direction
s1.SetDomain(1, unitDomain); // s1 v-direction
s2.SetDomain(0, unitDomain); // s2 u-direction
s2.SetDomain(1, unitDomain); // s2 v-direction
// 5. Prepare cell (this is a UnitCell object)
cell = cell.Duplicate();
cell.FormatTopology();
// 6. Map nodes to design space
// Loop through the uvw cell grid
for (int u = 0; u <= N[0]; u++)
{
for (int v = 0; v <= N[1]; v++)
{
for (int w = 0; w <= N[2]; w++)
{
// Construct cell path in tree
GH_Path treePath = new GH_Path(u, v, w);
// Fetch the list of nodes to append to, or initialise it
var nodeList = lattice.Nodes.EnsurePath(treePath);
// This loop maps each node in the cell onto the UV-surface maps
for (int i = 0; i < cell.Nodes.Count; i++)
{
double usub = cell.Nodes[i].X; // u-position within unit cell (local)
double vsub = cell.Nodes[i].Y; // v-position within unit cell (local)
double wsub = cell.Nodes[i].Z; // w-position within unit cell (local)
double[] uvw = { u + usub, v + vsub, w + wsub }; // uvw-position (global)
// Check if the node belongs to another cell (i.e. it's relative path points outside the current cell)
bool isOutsideCell = (cell.NodePaths[i][0] > 0 || cell.NodePaths[i][1] > 0 || cell.NodePaths[i][2] > 0);
// Check if current uvw-position is beyond the upper boundary
bool isOutsideSpace = (uvw[0] > N[0] || uvw[1] > N[1] || uvw[2] > N[2]);
if (isOutsideCell || isOutsideSpace)
{
nodeList.Add(null);
}
else
{
// Initialize for surface 1
Point3d pt1; Vector3d[] derivatives1;
// Initialize for surface 2
Point3d pt2; Vector3d[] derivatives2;
// Evaluate point on both surfaces
s1.Evaluate(uvw[0] / N[0], uvw[1] / N[1], 2, out pt1, out derivatives1);
s2.Evaluate(uvw[0] / N[0], uvw[1] / N[1], 2, out pt2, out derivatives2);
// Create vector joining the two points (this is our w-range)
Vector3d wVect = pt2 - pt1;
// Create the node, accounting for the position along the w-direction
var newNode = new LatticeNode(pt1 + wVect * uvw[2] / N[2]);
// Add node to tree
nodeList.Add(newNode);
}
}
}
// Define the uv space tree (used for morphing)
if (morphed && u < N[0] && v < N[1])
{
GH_Path spacePath = new GH_Path(u, v);
// Set trimming interval
var uInterval = new Interval((u) / N[0], (u + 1) / N[0]);
var vInterval = new Interval((v) / N[1], (v + 1) / N[1]);
// Create sub-surfaces
Surface ss1 = s1.Trim(uInterval, vInterval);
Surface ss2 = s2.Trim(uInterval, vInterval);
// Unitize domain
ss1.SetDomain(0, unitDomain); ss1.SetDomain(1, unitDomain);
ss2.SetDomain(0, unitDomain); ss2.SetDomain(1, unitDomain);
// Save to the space tree
spaceTree.Add(ss1, spacePath);
spaceTree.Add(ss2, spacePath);
}
}
}
// 7. Map struts to the node tree
if (morphed) lattice.MorphMapping(cell, spaceTree, N);
else lattice.ConformMapping(cell, N);
// 8. Set output
DA.SetDataList(0, lattice.Struts);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
//----Declareing--------------------------------------------------------------------------
// contains the 3 points of each face
DataTree<Point3f> facePoints = new DataTree<Point3f>();
// contains the coresponding topology points of each face
DataTree<int> faceTopologyPoints = new DataTree<int>();
// contains the face normals of each face
List<Vector3f> faceNormals = new List<Vector3f>();
// contains the 3 topology edges of each face
DataTree<int> faceTopoEdgesIdx = new DataTree<int>();
// contains the points of each topology edge
DataTree<int> topologyEdgesTopPtsIdx = new DataTree<int>();
// Contains the coordinates of each topology point
List<Point3d> topologyPoints = new List<Point3d>();
// Contains the index of neighbouring faces for each face
DataTree<int> faceNeighbours = new DataTree<int>();
// Contains Normals of topology vertices
List<Vector3d> topologyNormals = new List<Vector3d>();
// Contains the index of topology Edges for each Topology Point
DataTree<int> TopPt_Connected_TopEdges = new DataTree<int>();
//get Mesh from input
Mesh M = new Mesh();
DA.GetData<Mesh>("Mesh", ref M);
//----End Declareing-----------------------------------------------------------------------
//----Functions------------------------------------------------------------------------------
// get List with sublist of 3 points per face
for (int face_id = 0; face_id < M.Faces.Count; face_id++)
{
// set up the branch index
GH_Path pth = new GH_Path(face_id);
# region FacePoints
//---- Face Points (Point3f)
Point3f A, B, C, D;
M.Faces.GetFaceVertices(face_id, out A, out B, out C, out D);
facePoints.Add(A, pth);
facePoints.Add(B, pth);
facePoints.Add(C, pth);
#endregion FacePoints
#region FaceNormals
//---- Face Normals (Vector3f)
M.FaceNormals.ComputeFaceNormals();
faceNormals.Add(M.FaceNormals[face_id]);
#endregion FaceNormals
#region faceTopologyPoints
//---- Topology Points of the face (int)
int TA = M.Faces.GetTopologicalVertices(face_id)[0];
int TB = M.Faces.GetTopologicalVertices(face_id)[1];
int TC = M.Faces.GetTopologicalVertices(face_id)[2];
faceTopologyPoints.Add(TA, pth);
faceTopologyPoints.Add(TB, pth);
faceTopologyPoints.Add(TC, pth);
#endregion faceTopologyPoints
#region faceNeighbours
//---- Neighbours of face (int)
foreach (int i in M.TopologyEdges.GetEdgesForFace(face_id))
{
if (M.TopologyEdges.GetConnectedFaces(i).Length > 1)
{
foreach (int j in M.TopologyEdges.GetConnectedFaces(i))
{
if (j != face_id)
{ faceNeighbours.Add(j, pth); }
}
}
else
{ faceNeighbours.Add(-1, pth); }
}
#endregion faceNeighbours
#region Face Topology Edges
//---- Topology Edges (int)
foreach (int i in M.TopologyEdges.GetEdgesForFace(face_id))
{ faceTopoEdgesIdx.Add(i, pth); }
#endregion Face Topology Edges
}
for (int i = 0; i < M.TopologyVertices.Count; i++)
{
#region topologyPoints
//---- Topology Points (point3f)
int[] vertIdx = M.TopologyVertices.MeshVertexIndices(i);
topologyPoints.Add(M.Vertices[vertIdx[0]]);
#endregion topologyPoints
#region topologyNormals
//---- Topology Normals
M.FaceNormals.ComputeFaceNormals();
Vector3d normal = new Vector3d(0, 0, 0);
int count = 0;
foreach (int face in M.TopologyVertices.ConnectedFaces(i))
{
Vector3f temp = new Vector3f();
temp = M.FaceNormals[face];
Vector3d temp2 = new Vector3d(temp.X, temp.Y, temp.Z);
normal += temp2;
count++;
}
normal /= count;
topologyNormals.Add(normal);
#endregion topologyNormals
}
#region Topology Edges
for (int i = 0; i < M.TopologyEdges.Count; i++)
{
topologyEdgesTopPtsIdx.Add(M.TopologyEdges.GetTopologyVertices(i).I, new GH_Path(i));
topologyEdgesTopPtsIdx.Add(M.TopologyEdges.GetTopologyVertices(i).J, new GH_Path(i));
}
#endregion Topology Edges
#region Topology Vertex connected Topology Edge
for (int i = 0; i < topologyPoints.Count; i++)
{
// i = index of Topology Point
GH_Path pth = new GH_Path(i);
for (int j = 0; j < topologyEdgesTopPtsIdx.BranchCount; j++)
{
// j = index of Topology Edge
foreach (int k in topologyEdgesTopPtsIdx.Branch(j))
{
if (k == i)
// add multiple Topology Edges to the branch index, which is representing the topology point index
{ TopPt_Connected_TopEdges.Add(j, pth); }
}
}
}
#endregion Topology Vertex connected Topology Edge
//----End Functions--------------------------------------------------------------------------
//----Set Output-----------------------------------------------------------------------------
DA.SetDataTree(0, facePoints);
DA.SetDataTree(1, faceTopologyPoints);
DA.SetDataList(2, faceNormals);
DA.SetDataTree(3, faceNeighbours);
DA.SetDataList(4, topologyPoints);
DA.SetDataList(5, topologyNormals);
DA.SetDataTree(6, faceTopoEdgesIdx);
DA.SetDataTree(7, topologyEdgesTopPtsIdx);
DA.SetDataTree(8, TopPt_Connected_TopEdges);
//----End Set Output-------------------------------------------------------------------------
}
protected override void SolveInstance(IGH_DataAccess DA)
{
bool runCommand = false;
GH_Structure<GH_Point> origPoints = new GH_Structure<GH_Point>();
GH_Structure<GH_Point> adaptPoints = new GH_Structure<GH_Point>();
GH_Structure<GH_Curve> curves = new GH_Structure<GH_Curve>();
GH_Structure<GH_Vector> orientations = new GH_Structure<GH_Vector>();
GH_Structure<GH_Vector> faceOrientations = new GH_Structure<GH_Vector>();
DA.GetData(0, ref runCommand);
DA.GetDataTree(1, out origPoints);
DA.GetDataTree(2, out adaptPoints);
DA.GetDataTree(3, out curves);
DA.GetDataTree(4, out orientations);
DA.GetDataTree(5, out faceOrientations);
// Make sure the family and type is set before running the command.
if (runCommand && (familyName == null || familyName == "Not Selected"))
{
message = "Please select a family/type by double-clicking on the component before running the command.";
}
else if (runCommand)
{
// Get the scale
GHInfo ghi = new GHInfo();
GHScale scale = ghi.GetScale(Rhino.RhinoDoc.ActiveDoc);
// Send to Revit
LyrebirdChannel channel = new LyrebirdChannel(appVersion);
channel.Create();
if (channel != null)
{
string documentName = channel.DocumentName();
if (documentName != null)
{
// Create RevitObjects
List<RevitObject> obj = new List<RevitObject>();
#region OriginPoint Based
if (origPoints != null && origPoints.Branches.Count > 0)
{
List<RevitObject> tempObjs = new List<RevitObject>();
// make sure the branches match the datacount
if (origPoints.Branches.Count == origPoints.DataCount)
{
for (int i = 0; i < origPoints.Branches.Count; i++)
{
GH_Point ghpt = origPoints[i][0];
LyrebirdPoint point = new LyrebirdPoint
{
X = ghpt.Value.X,
Y = ghpt.Value.Y,
Z = ghpt.Value.Z
};
RevitObject ro = new RevitObject
{
Origin = point,
FamilyName = familyName,
TypeName = typeName,
Category = category,
CategoryId = categoryId,
GHPath = origPoints.Paths[i].ToString(),
GHScaleFactor = scale.ScaleFactor,
GHScaleName = scale.ScaleName
};
tempObjs.Add(ro);
}
obj = tempObjs;
}
else
{
// Inform the user they need to graft their inputs. Only one point per branch
System.Windows.Forms.MessageBox.Show("Warning:\n\nEach Branch represents an object, " +
"so origin point based elements should be grafted so that each point is on it's own branch.");
}
}
#endregion
#region AdaptiveComponents
else if (adaptPoints != null && adaptPoints.Branches.Count > 0)
{
// generate adaptive components
List<RevitObject> tempObjs = new List<RevitObject>();
for (int i = 0; i < adaptPoints.Branches.Count; i++)
{
RevitObject ro = new RevitObject();
List<LyrebirdPoint> points = new List<LyrebirdPoint>();
for (int j = 0; j < adaptPoints.Branches[i].Count; j++)
{
LyrebirdPoint point = new LyrebirdPoint(adaptPoints.Branches[i][j].Value.X, adaptPoints.Branches[i][j].Value.Y, adaptPoints.Branches[i][j].Value.Z);
points.Add(point);
}
ro.AdaptivePoints = points;
ro.FamilyName = familyName;
ro.TypeName = typeName;
ro.Origin = null;
ro.Category = category;
ro.CategoryId = categoryId;
ro.GHPath = adaptPoints.Paths[i].ToString();
ro.GHScaleFactor = scale.ScaleFactor;
ro.GHScaleName = scale.ScaleName;
tempObjs.Add(ro);
}
obj = tempObjs;
}
#endregion
#region Curve Based
else if (curves != null && curves.Branches.Count > 0)
{
// Get curves for curve based components
// Determine if we're profile or line based
if (curves.Branches.Count == curves.DataCount)
{
// Determine if the curve is a closed planar curve
Curve tempCrv = curves.Branches[0][0].Value;
if (tempCrv.IsPlanar(0.00000001) && tempCrv.IsClosed)
{
// Closed planar curve
List<RevitObject> tempObjs = new List<RevitObject>();
for (int i = 0; i < curves.Branches.Count; i++)
{
Curve crv = curves[i][0].Value;
List<Curve> rCurves = new List<Curve>();
bool getCrvs = CurveSegments(rCurves, crv, true);
if (rCurves.Count > 0)
{
RevitObject ro = new RevitObject();
List<LyrebirdCurve> lbCurves = new List<LyrebirdCurve>();
for (int j = 0; j < rCurves.Count; j++)
{
LyrebirdCurve lbc;
lbc = GetLBCurve(rCurves[j]);
lbCurves.Add(lbc);
}
ro.Curves = lbCurves;
ro.FamilyName = familyName;
ro.Category = category;
ro.CategoryId = categoryId;
ro.TypeName = typeName;
ro.Origin = null;
ro.GHPath = curves.Paths[i].ToString();
ro.GHScaleFactor = scale.ScaleFactor;
ro.GHScaleName = scale.ScaleName;
tempObjs.Add(ro);
}
}
obj = tempObjs;
}
else if (!tempCrv.IsClosed)
{
// Line based. Can only be arc or linear curves
List<RevitObject> tempObjs = new List<RevitObject>();
for (int i = 0; i < curves.Branches.Count; i++)
{
Curve ghc = curves.Branches[i][0].Value;
// Test that there is only one curve segment
PolyCurve polycurve = ghc as PolyCurve;
if (polycurve != null)
{
Curve[] segments = polycurve.Explode();
if (segments.Count() != 1)
{
break;
}
}
if (ghc != null)
{
//List<LyrebirdPoint> points = new List<LyrebirdPoint>();
LyrebirdCurve lbc = GetLBCurve(ghc);
List<LyrebirdCurve> lbcurves = new List<LyrebirdCurve> { lbc };
RevitObject ro = new RevitObject
{
Curves = lbcurves,
FamilyName = familyName,
Category = category,
CategoryId = categoryId,
TypeName = typeName,
Origin = null,
GHPath = curves.Paths[i].ToString(),
GHScaleFactor = scale.ScaleFactor,
GHScaleName = scale.ScaleName
};
tempObjs.Add(ro);
}
}
obj = tempObjs;
}
}
else
{
// Make sure all of the curves in each branch are closed
bool allClosed = true;
DataTree<CurveCheck> crvTree = new DataTree<CurveCheck>();
for (int i = 0; i < curves.Branches.Count; i++)
{
List<GH_Curve> ghCrvs = curves.Branches[i];
List<CurveCheck> checkedcurves = new List<CurveCheck>();
GH_Path path = new GH_Path(i);
for (int j = 0; j < ghCrvs.Count; j++)
{
Curve c = ghCrvs[j].Value;
if (c.IsClosed)
{
AreaMassProperties amp = AreaMassProperties.Compute(c);
if (amp != null)
{
double area = amp.Area;
CurveCheck cc = new CurveCheck(c, area);
checkedcurves.Add(cc);
}
}
else
{
allClosed = false;
}
}
if (allClosed)
{
// Sort the curves by area
checkedcurves.Sort((x, y) => x.Area.CompareTo(y.Area));
checkedcurves.Reverse();
foreach (CurveCheck cc in checkedcurves)
{
crvTree.Add(cc, path);
}
}
}
if (allClosed)
{
// Determine if the smaller profiles are within the larger
bool allInterior = true;
List<RevitObject> tempObjs = new List<RevitObject>();
for (int i = 0; i < crvTree.Branches.Count; i++)
{
try
{
List<int> crvSegmentIds = new List<int>();
List<LyrebirdCurve> lbCurves = new List<LyrebirdCurve>();
List<CurveCheck> checkedCrvs = crvTree.Branches[i];
Curve outerProfile = checkedCrvs[0].Curve;
double outerArea = checkedCrvs[0].Area;
List<Curve> planarCurves = new List<Curve>();
planarCurves.Add(outerProfile);
double innerArea = 0.0;
for (int j = 1; j < checkedCrvs.Count; j++)
{
planarCurves.Add(checkedCrvs[j].Curve);
innerArea += checkedCrvs[j].Area;
}
// Try to create a planar surface
IEnumerable<Curve> surfCurves = planarCurves;
Brep[] b = Brep.CreatePlanarBreps(surfCurves);
if (b.Count() == 1)
{
// Test the areas
double brepArea = b[0].GetArea();
double calcArea = outerArea - innerArea;
double diff = (brepArea - calcArea) / calcArea;
if (diff < 0.1)
{
// The profiles probably are all interior
foreach (CurveCheck cc in checkedCrvs)
{
Curve c = cc.Curve;
List<Curve> rCurves = new List<Curve>();
bool getCrvs = CurveSegments(rCurves, c, true);
if (rCurves.Count > 0)
{
int crvSeg = rCurves.Count;
crvSegmentIds.Add(crvSeg);
foreach (Curve rc in rCurves)
{
LyrebirdCurve lbc;
lbc = GetLBCurve(rc);
lbCurves.Add(lbc);
}
}
}
RevitObject ro = new RevitObject();
ro.Curves = lbCurves;
ro.FamilyName = familyName;
ro.Category = category;
ro.CategoryId = categoryId;
ro.TypeName = typeName;
ro.Origin = null;
ro.GHPath = crvTree.Paths[i].ToString();
ro.GHScaleFactor = scale.ScaleFactor;
ro.GHScaleName = scale.ScaleName;
ro.CurveIds = crvSegmentIds;
tempObjs.Add(ro);
}
}
else
{
allInterior = false;
message = "Warning:\n\nEach Branch represents an object, " +
"so curve based elements should be grafted so that each curve is on it's own branch, or all curves on a branch should " +
"be interior to the largest, outer boundary.";
}
}
catch
{
allInterior = false;
// Inform the user they need to graft their inputs. Only one curve per branch
message = "Warning:\n\nEach Branch represents an object, " +
"so curve based elements should be grafted so that each curve is on it's own branch, or all curves on a branch should " +
"be interior to the largest, outer boundary.";
}
}
if (tempObjs.Count > 0)
{
obj = tempObjs;
}
}
}
}
#endregion
// Orientation
if (orientations != null && orientations.Branches.Count > 0)
{
List<RevitObject> tempList = AssignOrientation(obj, orientations);
obj = tempList;
}
// face orientation
if (faceOrientations != null && faceOrientations.Branches.Count > 0)
{
List<RevitObject> tempList = AssignFaceOrientation(obj, faceOrientations);
obj = tempList;
}
// Parameters...
if (Params.Input.Count > 6)
{
List<RevitObject> currentObjs = obj;
List<RevitObject> tempObjs = new List<RevitObject>();
for (int r = 0; r < currentObjs.Count; r++)
{
RevitObject ro = currentObjs[r];
List<RevitParameter> revitParams = new List<RevitParameter>();
for (int i = 6; i < Params.Input.Count; i++)
{
RevitParameter rp = new RevitParameter();
IGH_Param param = Params.Input[i];
string paramInfo = param.Description;
string[] pi = paramInfo.Split(new[] { "\n", ":" }, StringSplitOptions.None);
string paramName = null;
try
{
paramName = pi[1].Substring(1);
string paramStorageType = pi[5].Substring(1);
rp.ParameterName = paramName;
rp.StorageType = paramStorageType;
}
catch (Exception ex)
{
Debug.WriteLine(ex.Message);
}
if (paramName != null)
{
GH_Structure<IGH_Goo> data = null;
try
{
DA.GetDataTree(i, out data);
}
catch (Exception ex)
{
Debug.WriteLine(ex.Message);
}
if (data != null)
{
string value = data[r][0].ToString();
rp.Value = value;
revitParams.Add(rp);
}
}
}
ro.Parameters = revitParams;
tempObjs.Add(ro);
}
obj = tempObjs;
}
// Send the data to Revit to create and/or modify family instances.
if (obj != null && obj.Count > 0)
{
try
{
string docName = channel.DocumentName();
if (docName == null || docName == string.Empty)
{
message = "Could not contact the lyrebird server. Make sure it's running and try again.";
}
else
{
string nn = NickName;
if (nn == null || nn.Length == 0)
{
nn = "LBOut";
}
channel.CreateOrModify(obj, InstanceGuid, NickName);
message = obj.Count.ToString() + " objects sent to the lyrebird server.";
}
}
catch
{
message = "Could not contact the lyrebird server. Make sure it's running and try again.";
}
}
channel.Dispose();
try
{
}
catch (Exception ex)
{
Debug.WriteLine(ex.Message);
}
}
else
{
message = "Error\n" + "The Lyrebird Service could not be found. Ensure Revit is running, the Lyrebird server plugin is installed, and the server is active.";
}
}
}
else
{
message = null;
}
// Check if the revit information is set
if (familyName != null || (familyName != "Not Selected" && typeName != "Not Selected"))
{
StringBuilder sb = new StringBuilder();
sb.AppendLine("Family: " + familyName);
sb.AppendLine("Type: " + typeName);
sb.AppendLine("Category: " + category);
for (int i = 0; i < inputParameters.Count; i++)
{
RevitParameter rp = inputParameters[i];
string type = "Instance";
if (rp.IsType)
{
type = "Type";
}
sb.AppendLine(string.Format("Parameter{0}: {1} / {2} / {3}", (i + 1).ToString(CultureInfo.InvariantCulture), rp.ParameterName, rp.StorageType, type));
}
objMessage = sb.ToString();
}
else
{
objMessage = "No data type set. Double-click to set data type";
}
DA.SetData(0, objMessage);
DA.SetData(1, message);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
//---- Declareing -------------------------------------------------------------------------------
GH_Structure<GH_Point> SofistikPts;
DA.GetDataTree("SofistikPoints", out SofistikPts);
List<Point3d> flatclean = new List<Point3d>();
DA.GetDataList<Point3d>("Flatten Points", flatclean);
DataTree<int> SofistikInt = new DataTree<int>();
//---- End Declareing ---------------------------------------------------------------------------
//---- Functions --------------------------------------------------------------------------------
for (int i = 0; i < flatclean.Count; i++)
{
Point3d fpoint = flatclean[i];
for (int j = 0; j < SofistikPts.Paths.Count; j++)
{
GH_Path pth = SofistikPts.Paths[j];
for (int k = 0; k < SofistikPts[pth].Count; k++)
{
GH_Point ghp = SofistikPts[pth][k];
if ((Math.Abs(fpoint.X - ghp.Value.X) <= 0.01) &&
(Math.Abs(fpoint.Y - ghp.Value.Y) <= 0.01) &&
(Math.Abs(fpoint.Z - ghp.Value.Z) <= 0.01))
{
SofistikInt.Add(i, pth.AppendElement(k));
}
}
}
}
//---- End Functions ----------------------------------------------------------------------------
//---- Set Output -----------------------------------------------------------------------------
DA.SetDataTree(0, SofistikInt);
//---- End Set Output -----------------------------------------------------------------------------
}
protected override void BeforeSolveInstance()
{
// input
iSpringMesh = new SpringMesh();
iPolyLine = new List<Curve>();
iVertexStatus = new List<bool>(); // true is plate occupied, false should put triLoop
iPolyLineID = new List<int>(); // for vertex status access the order of polyline
iThickness = new List<double>();
iAttractors = new List<Point3d>();
iVertexPanel2 = new List<bool>();
//ManualValueTree = new GH_Structure<GH_Number>();
// output
oInfo = string.Empty;
oDebugList = new List<Vector3d>();
oTriLoop = new DataTree<Brep>();
oTriLoopID = new DataTree<string>();
oTriLoopCurves = new DataTree<Curve>();
oDualLoop1 = new DataTree<Brep>();
oDualLoop2 = new DataTree<Brep>();
oDualLoop1ID = new DataTree<string>();
oDualLoop2ID = new DataTree<string>();
oDualLoop1Curves = new DataTree<Curve>();
oDualLoop2Curves = new DataTree<Curve>();
oClosedPanel = new DataTree<Brep>();
oTriLoopPlanCrv = new DataTree<Curve>();
oTriLoopEffectorHoles = new DataTree<Point3d>();
// internal use data
topCenterPts = new List<Point3d>();
bottomCenterPts = new List<Point3d>();
topCenterPolygonOccupied = new List<bool>(); // not be used at this moment
bottomCps = new List<Point3d>();
topCps = new List<Point3d>();
indexSortPolygon = new List<int[]>(); // array is reference type in csharp
verticesValues = new List<double>();
curveVerticesValues = new List<double>();
planarVerticesValues = new List<double>();
openingWidthVerticesValues = new List<double>();
pointinessValues = new List<double>();
ManualAdjustedVertexIndexies = new List<int>();
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object can be used to retrieve data from input parameters and
/// to store data in output parameters.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
// 1. Retrieve and validate data
var cell = new UnitCell();
double radius = 0;
double height = 0;
int nU = 0;
int nV = 0;
int nW = 0;
bool morphed = false;
if (!DA.GetData(0, ref cell)) { return; }
if (!DA.GetData(1, ref radius)) { return; }
if (!DA.GetData(2, ref height)) { return; }
if (!DA.GetData(3, ref nU)) { return; }
if (!DA.GetData(4, ref nV)) { return; }
if (!DA.GetData(5, ref nW)) { return; }
if (!DA.GetData(6, ref morphed)) { return; }
if (!cell.isValid) { return; }
if (radius == 0) { return; }
if (height == 0) { return; }
if (nU == 0) { return; }
if (nV == 0) { return; }
if (nW == 0) { return; }
// 2. Initialize the lattice
var lattice = new Lattice();
// Will contain the morphed uv spaces (as surface-surface, surface-axis or surface-point)
var spaceTree = new DataTree<GeometryBase>();
// 3. Define cylinder
Plane basePlane = Plane.WorldXY;
Surface cylinder = ( new Cylinder(new Circle(basePlane, radius), height) ).ToNurbsSurface();
cylinder = cylinder.Transpose();
LineCurve axis = new LineCurve(basePlane.Origin, basePlane.Origin + height*basePlane.ZAxis);
// 4. Package the number of cells in each direction into an array
float[] N = new float[3] { nU, nV, nW };
// 5. Normalize the UV-domain
Interval unitDomain = new Interval(0, 1);
cylinder.SetDomain(0, unitDomain); // surface u-direction
cylinder.SetDomain(1, unitDomain); // surface v-direction
axis.Domain = unitDomain;
// 6. Prepare cell (this is a UnitCell object)
cell = cell.Duplicate();
cell.FormatTopology();
// 7. Map nodes to design space
// Loop through the uvw cell grid
for (int u = 0; u <= N[0]; u++)
{
for (int v = 0; v <= N[1]; v++)
{
for (int w = 0; w <= N[2]; w++)
{
// Construct cell path in tree
GH_Path treePath = new GH_Path(u, v, w);
// Fetch the list of nodes to append to, or initialise it
var nodeList = lattice.Nodes.EnsurePath(treePath);
// This loop maps each node index in the cell onto the UV-surface maps
for (int i = 0; i < cell.Nodes.Count; i++)
{
double usub = cell.Nodes[i].X; // u-position within unit cell (local)
double vsub = cell.Nodes[i].Y; // v-position within unit cell (local)
double wsub = cell.Nodes[i].Z; // w-position within unit cell (local)
double[] uvw = { u + usub, v + vsub, w + wsub }; // uvw-position (global)
// Check if the node belongs to another cell (i.e. it's relative path points outside the current cell)
bool isOutsideCell = (cell.NodePaths[i][0] > 0 || cell.NodePaths[i][1] > 0 || cell.NodePaths[i][2] > 0);
// Check if current uvw-position is beyond the upper boundary
bool isOutsideSpace = (uvw[0] > N[0] || uvw[1] > N[1] || uvw[2] > N[2]);
if (isOutsideCell || isOutsideSpace)
{
nodeList.Add(null);
}
else
{
Point3d pt1, pt2;
Vector3d[] derivatives;
// Construct z-position vector
Vector3d vectorZ = height * basePlane.ZAxis * uvw[0] / N[0];
// Compute pt1 (on axis)
pt1 = basePlane.Origin + vectorZ;
// Compute pt2 (on surface)
cylinder.Evaluate(uvw[0] / N[0], uvw[1] / N[1], 2, out pt2, out derivatives);
// Create vector joining these two points
Vector3d wVect = pt2 - pt1;
// Instantiate new node
var newNode = new LatticeNode(pt1 + wVect * uvw[2] / N[2]);
// Add new node to tree
nodeList.Add(newNode);
}
}
}
// Define the uv space map tree (used for morphing)
if (morphed && u < N[0] && v < N[1])
{
GH_Path spacePath = new GH_Path(u, v);
// Set trimming interval
var uInterval = new Interval((u) / N[0], (u + 1) / N[0]);
var vInterval = new Interval((v) / N[1], (v + 1) / N[1]);
// Create sub-surface and sub axis
Surface ss1 = cylinder.Trim(uInterval, vInterval);
Curve ss2 = axis.Trim(uInterval);
// Unitize domains
ss1.SetDomain(0, unitDomain); ss1.SetDomain(1, unitDomain);
ss2.Domain = unitDomain;
// Save to the space tree
spaceTree.Add(ss1, spacePath);
spaceTree.Add(ss2, spacePath);
}
}
}
// 8. Map struts to the node tree
if (morphed)
{
lattice.MorphMapping(cell, spaceTree, N);
}
else
{
lattice.ConformMapping(cell, N);
}
// 9. Set output
DA.SetDataList(0, lattice.Struts);
}
protected override void SolveInstance(IGH_DataAccess DA)
{
// 1. Declare placeholder
string source = null;
string query = null;
string indexPath = null;
DataTree<string> queryResultTree = new DataTree<string>();
// 2. Abort on invalid inputs.
if (!DA.GetData(0, ref source)) { return; }
if (source == null) { return; }
if (source.Length == 0) { return; }
if (!DA.GetData(1, ref query)) { return; }
if (query == null) { return; }
if (query.Length == 0) { return; }
if (!DA.GetData(2, ref indexPath)) { return; }
if (query == null) { return; }
if (query.Length == 0) { return; }
gh_watcher = new GH_FileWatcher(indexPath, true, gh_watcher_Changed);
// 3. Connect to source & fetch data
MySqlConnection connection = new MySqlConnection(source);
try
{
connection.Open();
}
catch (Exception ex)
{
output.Add("Connection Failed.\n" + ex.ToString());
}
try
{
MySqlCommand command = connection.CreateCommand();
command.CommandText = query;
MySqlDataReader reader = command.ExecuteReader();
int i = 0;
while (reader.Read())
{
for (int j = 0; j < reader.FieldCount; j++)
{
queryResultTree.Add(reader.GetString(j), new GH_Path(i));
}
i++;
}
}
catch (Exception ex)
{
output.Add("Fetching failed.\n" + ex.ToString());
}
connection.Close();
// 4. Output
DA.SetDataTree(0, queryResultTree);
DA.SetDataList(1, output);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
//-----------------------------------------------------------------INPUT----------------------------------------------------------------------------//
List<IGoal> permanentGoals = new List<IGoal>();
DA.GetDataList(0, permanentGoals);
List<IGoal> loadGoals = new List<IGoal>();
DA.GetDataList(1, loadGoals);
double fStart = 1.0;
DA.GetData(2, ref fStart);
double fStep = 0.1;
DA.GetData(3, ref fStep);
double angle = 15.0;
DA.GetData(4, ref angle);
angle *= Math.PI / 180.0;
double displ = 2.0;
DA.GetData(5, ref displ);
double threshold = 1e-15;
DA.GetData(6, ref threshold);
int equilibriumIter = 100;
DA.GetData(7, ref equilibriumIter);
bool opt = false;
DA.GetData(8, ref opt);
int maxIterations = 1000;
//--------------------------------------------------------------CALCULATE----------------------------------------------------------------------------//
//-------------------VALUES TO STORE----------------------------//
//Position lists
List<Point3d> initialPositions = new List<Point3d>();
List<Point3d> previousPositions = new List<Point3d>();
List<Point3d> currentPositions = new List<Point3d>();
DataTree<Point3d> vertexPositions = new DataTree<Point3d>();
//Goal output lists
List<object> previousGOutput = new List<object>();
List<object> currentGOutput = new List<object>();
DataTree<object> outputGoals = new DataTree<object>();
//Load factors and displacements
List<double> loadfactors = new List<double>();
List<double> displacementsRMS = new List<double>();
//-------------------K2 PHYSICAL SYSTEM----------------------------//
//Initialise Kangaroo solver
var PS = new KangarooSolver.PhysicalSystem();
var GoalList = new List<IGoal>();
//Assign indexes to the particles in each Goal
foreach (IGoal pG in permanentGoals)
{
PS.AssignPIndex(pG, 0.01);
GoalList.Add(pG);
}
foreach (IGoal lG in loadGoals)
{
PS.AssignPIndex(lG, 0.01);
GoalList.Add(lG);
}
//Store initial loads
List<Vector3d> initialLoads = new List<Vector3d>();
for (int i = 0; i < loadGoals.Count; i++)
{
initialLoads.Add(loadGoals[i].Move[0]);
}
//-------------------INITIALISE VALUE LISTS----------------------------//
//Initial vertex positions
Point3d[] initPos = PS.GetPositionArray();
foreach (Point3d pt in initPos)
{
initialPositions.Add(pt);
previousPositions.Add(pt);
currentPositions.Add(pt);
}
//Initial goal output
List<object> initGOutput = PS.GetOutput(GoalList);
for (int i = 0; i < permanentGoals.Count; i++)
{
previousGOutput.Add(initGOutput[i]);
currentGOutput.Add(initGOutput[i]);
}
//-------------------LOAD INCREMENT LOOP----------------------------//
bool run = true;
int iter = 0;
double LF;
double BLF = 0.0;
double preRMS = 0.0;
while (run && iter < maxIterations)
{
LF = fStart + (fStep * iter);
loadfactors.Add(LF);
//Scale load goals in each iteration
for (int i = 0; i < loadGoals.Count; i++)
{
int index = GoalList.Count - loadGoals.Count + i;
Vector3d scaledLoad = initialLoads[i] * LF;
GoalList[index] = new KangarooSolver.Goals.Unary(GoalList[index].PIndex[0], scaledLoad);
}
//Solve equilibrium for given load increment
int counter = 0;
do
{
PS.Step(GoalList, true, threshold);
counter++;
} while (PS.GetvSum() > threshold && counter < equilibriumIter);
//Update value lists
GH_Path path = new GH_Path(iter);
//Get new equilibrium positions and update position lists
Point3d[] newPositions = PS.GetPositionArray();
for (int k = 0; k < initialPositions.Count; k++)
{
previousPositions[k] = currentPositions[k];
currentPositions[k] = newPositions[k];
if (opt)
{
vertexPositions.Add(newPositions[k], path);
}
}
//Get new goal output and update goal output lists
List<object> newGOutput = PS.GetOutput(GoalList);
for (int m = 0; m < permanentGoals.Count; m++)
{
previousGOutput[m] = currentGOutput[m];
currentGOutput[m] = newGOutput[m];
if (opt)
{
outputGoals.Add(newGOutput[m], path);
}
}
//Does buckling occur?
List<Vector3d> nodalDisplacements = calcDisplacement(currentPositions, initialPositions);
double curRMS = calcDisplacementsRMS(nodalDisplacements);
displacementsRMS.Add(curRMS);
bool buckled = isBuckled(curRMS, preRMS, iter, fStart, fStep, angle);
bool deflected = isDeflectionTooBig(nodalDisplacements, displ);
if (buckled || deflected)
{
run = false;
BLF = LF - fStep;
}
//Update
preRMS = curRMS;
iter++;
}
//-----------------------FLAG BUCKLED STATE----------------------------//
if (BLF >= 1.0)
{
this.Message = "Works!";
}
else
{
this.Message = "Buckles!";
}
//-----------------------WARNING----------------------------//
//If the maximum number of iterations has been reached
if (iter == maxIterations)
{
this.AddRuntimeMessage(GH_RuntimeMessageLevel.Warning, "Buckling did not occur within " + maxIterations + " load increments. Adjust load-step");
}
//-----------------------UPDATE VALUE LISTS----------------------------//
//If opt is false then add results from last two iterations
if (!opt)
{
for (int i = 0; i < currentPositions.Count; i++)
{
vertexPositions.Add(previousPositions[i], new GH_Path(0));
vertexPositions.Add(currentPositions[i], new GH_Path(1));
}
for (int j = 0; j < currentGOutput.Count; j++)
{
outputGoals.Add(previousGOutput[j], new GH_Path(0));
outputGoals.Add(currentGOutput[j], new GH_Path(1));
}
}
//---------------------------------------------------------------OUTPUT-------------------------------------------------------------------------------//
DA.SetData(0, BLF);
DA.SetDataList(1, loadfactors);
DA.SetDataList(2, displacementsRMS);
DA.SetDataTree(3, vertexPositions);
DA.SetDataTree(4, outputGoals);
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
//---- Declareing ---------------------------------------------------------------------------
List<Tri_Loop_Component> All_Components = new List<Tri_Loop_Component>();
DA.GetDataList<Tri_Loop_Component>("Components", All_Components);
DataTree<Point3d> SofistikPoints = new DataTree<Point3d>();
DataTree<int> SofistikIndexies = new DataTree<int>();
DataTree<int> SofistikCrvPtIdx = new DataTree<int>();
DataTree<Point3d> SofistikCrvPtCoo = new DataTree<Point3d>();
DataTree<Brep> SofistikBreps = new DataTree<Brep>();
DataTree<int> SofistikBrepsIdx = new DataTree<int>();
DataTree<Curve> SofistikCurves = new DataTree<Curve>();
//---- End Declareing -----------------------------------------------------------------------
//---- Functions ----------------------------------------------------------------------------
int componentIdx = 0;
foreach (Tri_Loop_Component component in All_Components)
{
GH_Path pth1 = new GH_Path(componentIdx);
// run / generate Informations for Sofistik
component.SofistikInformation();
component.SofistikCreateSurfaces();
// Points
for (int j = 0; j < component.SofistikPlatePoints.BranchCount; j++)
{
foreach (Point3d p in component.SofistikPlatePoints.Branch(j))
{ SofistikPoints.Add(p, pth1.AppendElement(j)); }
foreach (int idx in component.SofistikPlateIndexies.Branch(j))
{ SofistikIndexies.Add(idx, pth1.AppendElement(j)); }
}
// CurvePoints
for (int j = 0; j < component.SofistikCrvPtCoo.BranchCount; j++)
{
GH_Path pth0 = component.SofistikCrvPtCoo.Path(j);
foreach (Point3d pt in component.SofistikCrvPtCoo.Branch(j))
{
//pth1.AppendElement(pth0[0]);
//pth1.AppendElement(pth0[1]);
//SofistikCrvPtCoo.Add(pt, pth1.AppendElement(pth0[0]));
// 2 level Tree
SofistikCrvPtCoo.Add(pt, pth1.AppendElement(pth0[0]));
}
foreach (int idx in component.SofistikCrvPtIdx.Branch(j))
{
//pth1.AppendElement(pth0[0]);
//pth1.AppendElement(pth0[1]);
//SofistikCrvPtIdx.Add(idx, pth1.AppendElement(pth0[0]));
// 2 level Tree
SofistikCrvPtIdx.Add(idx, pth1.AppendElement(pth0[0]));
}
}
// Curves
for (int i = 0; i < component.SofistikCurves.BranchCount; i++)
{
GH_Path pth0 = component.SofistikCurves.Path(i);
foreach (Curve c in component.SofistikCurves.Branch(i))
{
SofistikCurves.Add(c, pth1.AppendElement(pth0[0]));
}
}
// Surfaces
for (int j = 0; j < component.SofistikSurfaces.BranchCount; j++)
{
foreach (Brep[] p in component.SofistikSurfaces.Branch(j))
{ SofistikBreps.Add(p[0], pth1.AppendElement(j)); }
foreach (int idx in component.SofistikSurfacesIdx.Branch(j))
{ SofistikBrepsIdx.Add(idx, pth1.AppendElement(j)); }
}
componentIdx++;
}
//---- End Functions ------------------------------------------------------------------------
//---- Set Output ---------------------------------------------------------------------------
DA.SetDataTree(0, SofistikPoints);
DA.SetDataTree(1, SofistikIndexies);
DA.SetDataTree(2, SofistikCrvPtCoo);
DA.SetDataTree(3, SofistikCrvPtIdx);
DA.SetDataTree(4, SofistikBreps);
DA.SetDataTree(5, SofistikBrepsIdx);
DA.SetDataTree(6, SofistikCurves);
//---- End Set Output -----------------------------------------------------------------------
}
public TreeToGraphConverter (DataTree tree)
{
Tree = tree;
DirectedGraph= new DirectedGraph<string>();
}
/// <summary>
/// This is the method that actually does the work.
/// </summary>
/// <param name="DA">The DA object is used to retrieve from inputs and store in outputs.</param>
protected override void SolveInstance(IGH_DataAccess DA)
{
//---- Declareing ---------------------------------------------------------------------------
List<Tri_Loop_Component> All_Components = new List<Tri_Loop_Component>();
DA.GetDataList<Tri_Loop_Component>("Components", All_Components);
DataTree<Curve> All_Curves = new DataTree<Curve>();
//// =======================================================================================
// Added by Gene
DataTree<Curve> All_ExtendedCurves = new DataTree<Curve>();
DataTree<Brep> All_SingleStripeBreps = new DataTree<Brep>();
//// =======================================================================================
DataTree<Point3d> All_CentrePointsL01 = new DataTree<Point3d>();
DataTree<Point3d> All_CentrePointsL02 = new DataTree<Point3d>();
DataTree<Curve> All_PlateCrv = new DataTree<Curve>();
DataTree<Point3d> All_PentagonPts_L01 = new DataTree<Point3d>();
DataTree<Point3d> All_PentagonPts_L02 = new DataTree<Point3d>();
DataTree<int> All_StripeIds = new DataTree<int>();
DataTree<Brep> All_StripeBreps = new DataTree<Brep>();
DataTree<Curve> All_StripeIntersectCrvs = new DataTree<Curve>();
DataTree<Plane> All_StripeIntersectPlane = new DataTree<Plane>();
//---- End Declareing -----------------------------------------------------------------------
//---- Functions ----------------------------------------------------------------------------
int componentIdx = 0;
foreach (Tri_Loop_Component component in All_Components)
{
GH_Path pth1 = new GH_Path(componentIdx);
// run / generate Informations for Sofistik
// create output information
for (int p = 0; p < component.CentersL01.Count; p++)
{
All_CentrePointsL01.Add(component.CentersL01[p], pth1);
All_CentrePointsL02.Add(component.CentersL02[p], pth1);
}
for (int c = 0; c < component.Curves.BranchCount; c++)
{
All_Curves.Add(component.Curves.Branch(c)[0], pth1.AppendElement(c));
All_Curves.Add(component.Curves.Branch(c)[1], pth1.AppendElement(c));
//// =======================================================================================
// Added by Gene
All_ExtendedCurves.Add(component.ExtendedCurves.Branch(c)[0], pth1.AppendElement(c));
All_ExtendedCurves.Add(component.ExtendedCurves.Branch(c)[1], pth1.AppendElement(c));
//// =======================================================================================
}
for (int sid = 0; sid < component.StripeID.BranchCount; sid++)
{
All_StripeIds.Add(component.StripeID.Branch(sid)[0], pth1.AppendElement(sid));
All_StripeIds.Add(component.StripeID.Branch(sid)[1], pth1.AppendElement(sid));
All_StripeIds.Add(component.StripeID.Branch(sid)[2], pth1.AppendElement(sid));
}
for (int p = 0; p < component.PlateCrv.BranchCount; p++)
{
All_PlateCrv.Add(component.PlateCrv.Branch(p)[0], pth1.AppendElement(p));
All_PlateCrv.Add(component.PlateCrv.Branch(p)[1], pth1.AppendElement(p));
}
for (int pent = 0; pent < component.PlanarPentagonL01.BranchCount; pent++)
{
All_PentagonPts_L01.Add(component.PlanarPentagonL01.Branch(pent)[0], pth1.AppendElement(pent));
All_PentagonPts_L01.Add(component.PlanarPentagonL01.Branch(pent)[1], pth1.AppendElement(pent));
All_PentagonPts_L01.Add(component.PlanarPentagonL01.Branch(pent)[2], pth1.AppendElement(pent));
All_PentagonPts_L01.Add(component.PlanarPentagonL01.Branch(pent)[3], pth1.AppendElement(pent));
All_PentagonPts_L01.Add(component.PlanarPentagonL01.Branch(pent)[4], pth1.AppendElement(pent));
}
for (int pent = 0; pent < component.PlanarPentagonL02.BranchCount; pent++)
{
All_PentagonPts_L02.Add(component.PlanarPentagonL02.Branch(pent)[0], pth1.AppendElement(pent));
All_PentagonPts_L02.Add(component.PlanarPentagonL02.Branch(pent)[1], pth1.AppendElement(pent));
All_PentagonPts_L02.Add(component.PlanarPentagonL02.Branch(pent)[2], pth1.AppendElement(pent));
All_PentagonPts_L02.Add(component.PlanarPentagonL02.Branch(pent)[3], pth1.AppendElement(pent));
All_PentagonPts_L02.Add(component.PlanarPentagonL02.Branch(pent)[4], pth1.AppendElement(pent));
}
// Information from Stripe Class
for (int s = 0; s < component.Stripes.Count; s++)
{
for (int t = 0; t < component.Stripes[s].SurfaceAtLoop.Length; t++)
{ All_StripeBreps.Add(component.Stripes[s].SurfaceAtLoop[t], pth1.AppendElement(s)); }
//for (int u = 0; u < component.Stripes[s].IntersectionCurve.Length; u++)
//{ All_StripeIntersectCrvs.Add(component.Stripes[s].IntersectionCurve[u], pth1.AppendElement(s));}
All_StripeIntersectPlane.Add(component.Stripes[s].IntersectionPlane, pth1.AppendElement(s));
}
// ======================================================================================================
// Gene Added
for (int s = 0; s < component.StripesSingle.Count; s++)
{
All_SingleStripeBreps.Add(component.StripesSingle[s].loop, pth1.AppendElement(s));
//for (int u = 0; u < component.Stripes[s].IntersectionCurve.Length; u++)
//{ All_StripeIntersectCrvs.Add(component.Stripes[s].IntersectionCurve[u], pth1.AppendElement(s));}
//All_StripeIntersectPlane.Add(component.StripesSingle[s].IntersectionPlane, pth1.AppendElement(s));
}
// ======================================================================================================
componentIdx++;
}
//---- End Functions ------------------------------------------------------------------------
//---- Set Output ---------------------------------------------------------------------------
DA.SetDataTree(0, All_CentrePointsL01);
DA.SetDataTree(1, All_CentrePointsL02);
DA.SetDataTree(2, All_Curves);
DA.SetDataTree(3, All_PlateCrv);
DA.SetDataTree(4, All_PentagonPts_L01);
DA.SetDataTree(5, All_PentagonPts_L02);
DA.SetDataTree(6, All_StripeIds);
DA.SetDataTree(7, All_StripeBreps);
DA.SetDataTree(8, All_StripeIntersectPlane);
//// =======================================================================================
// Added by Gene
DA.SetDataTree(9, All_ExtendedCurves);
DA.SetDataTree(10, All_SingleStripeBreps);
//// =======================================================================================
//---- End Set Output -----------------------------------------------------------------------
}
