public static MappingSinglePoint Create(Point3DContainer _point_container, Component _direct_parent, TypeNode _tn, bool _as_example, out MappingError err)
{
// attempt a preliminary mapping of coordinates
Dictionary <string, TypeNode> coords_mapping = MappingSinglePoint.PreliminaryMapping(_point_container, _direct_parent, _tn, _as_example, out err);
if (err != MappingError.NONE)
{
return(null);
}
// perform actual mapping
if (coords_mapping["x"] != null && coords_mapping["y"] != null && coords_mapping["z"] != null)
{
MappingSinglePoint msp = new MappingSinglePoint(_point_container, _direct_parent, _tn, _as_example);
msp.coords_mapping = coords_mapping;
_tn.MostRecentMapping = msp;
return(msp);
}
else
{
err = MappingError.INSTANTIATION_OF_TYPE_IMPOSSIBLE;
return(null);
}
}
/// <summary>
/// This method accepts both a partial and a full matching.
/// The matching rules are: 1. Components can match only COMPLEX TypeNodes. 2. Parameters can match only SIMPLE TypeNodes.
/// 3. GeometricRelationshipscan only match a NON_BINDABLE TypeNode with exactly one SubNode of COMPLEX type.
/// </summary>
public static void MatchStructure(Component _comp, TypeNode _tn, ref List <KeyValuePair <string, TypeNode> > correspondencies, out MappingError err)
{
if (correspondencies == null)
{
correspondencies = new List <KeyValuePair <string, TypeNode> >();
}
err = MappingError.NONE;
if (_comp == null || _tn == null)
{
err = MappingError.MISSING_MAPPING_END;
return;
}
if (_tn.BindingType == TypeNodeContentBindingType.NOT_BINDABLE ||
_tn.BindingType == TypeNodeContentBindingType.SIMPLE)
{
err = MappingError.COMPONENT_TO_TYPE_MISMATCH;
return;
}
if (_tn.BindingType == TypeNodeContentBindingType.KEY)
{
err = MappingError.NO_MAPPING_TO_ID_ALLOWED;
return;
}
if (correspondencies.Where(x => x.Key == MappingComponent.PREFIX_COMP + _comp.ID.ToString()).Count() > 0)
{
err = MappingError.ID_DUPLICATION;
return;
}
// at least top-level matching is possible
List <KeyValuePair <string, TypeNode> > new_correspondencies = new List <KeyValuePair <string, TypeNode> >();
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(MappingComponent.PREFIX_COMP + _comp.ID.ToString(), _tn));
bool transferred_id = false;
if (_tn.SubNodes == null || _tn.SubNodes.Count == 0)
{
return;
}
// attempt matching of structure
foreach (TypeNode sN in _tn.SubNodes)
{
if (sN.BindingType == TypeNodeContentBindingType.SIMPLE)
{
// look for an existing mapping
bool found_existing = false;
if (sN.AllMappings != null && sN.AllMappings.Count > 0)
{
MappingObject mo = sN.AllMappings.FirstOrDefault(x => (x is MappingParameter) && _comp.ContainedParameters.ContainsKey((x as MappingParameter).MappedParameter.ID));
if (mo != null)
{
string p_key = MappingComponent.PREFIX_PARAM + (mo as MappingParameter).MappedParameter.ID.ToString();
if (!(correspondencies.Where(x => x.Key == p_key).Count() > 0) && !(new_correspondencies.Where(x => x.Key == p_key).Count() > 0))
{
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(p_key, sN));
}
found_existing = true;
}
}
// try to match it to a parameter
if (!found_existing && _comp.ContainedParameters.Count() > 0)
{
Parameter p = _comp.ContainedParameters.FirstOrDefault(x => x.Value != null && MappingObject.StringsCouldMeanTheSame(x.Value.Name, sN.Label)).Value;
if (p != null)
{
string p_key = MappingComponent.PREFIX_PARAM + p.ID.ToString();
if (!(correspondencies.Where(x => x.Key == p_key).Count() > 0) && !(new_correspondencies.Where(x => x.Key == p_key).Count() > 0))
{
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(p_key, sN));
}
}
}
}
else if (sN.BindingType == TypeNodeContentBindingType.NOT_BINDABLE)
{
// try to match it to a geometric relationship
if (sN.IsEnumerable && sN.SubNodes != null && sN.SubNodes.Count == 1)
{
TypeNode sN_1 = sN.SubNodes[0];
if (sN_1.BindingType == TypeNodeContentBindingType.COMPLEX)
{
bool match_w_geometry_found = false;
foreach (GeometricRelationship gr in _comp.R2GInstances)
{
// get the path points as identifiable containers
List <HierarchicalContainer> geometry = gr.GeometricContent;
if (geometry.Count == 0)
{
continue;
}
foreach (HierarchicalContainer hc in geometry)
{
Point3DContainer p3dc = hc as Point3DContainer;
if (p3dc == null)
{
continue;
}
// CHECK IF A MAPPING IS AT ALL POSSIBLE
MappingError sN_1_test_err = MappingError.NONE;
MappingSinglePoint.PreliminaryMapping(p3dc, _comp, sN_1, false, out sN_1_test_err);
if (sN_1_test_err != MappingError.NONE)
{
break;
}
// look for an existing mapping
bool found_existing = false;
if (sN_1.AllMappings != null && sN_1.AllMappings.Count > 0)
{
MappingObject mo = sN_1.AllMappings.FirstOrDefault(x => (x is MappingSinglePoint) &&
(x as MappingSinglePoint).MappedPointC.ID_primary == p3dc.ID_primary && (x as MappingSinglePoint).MappedPointC.ID_secondary == p3dc.ID_secondary);
if (mo != null)
{
string p_key = MappingComponent.PREFIX_P3DC + (mo as MappingSinglePoint).MappedPointC.ID_primary.ToString() +
"_" + (mo as MappingSinglePoint).MappedPointC.ID_secondary.ToString();
if (!(correspondencies.Where(x => x.Key == p_key).Count() > 0) && !(new_correspondencies.Where(x => x.Key == p_key).Count() > 0))
{
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(p_key, sN_1));
}
found_existing = true;
match_w_geometry_found = true;
}
}
// try to create a new mapping
if (!found_existing)
{
MappingError sN_1_m_err = MappingError.NONE;
MappingSinglePoint.PreliminaryMapping(p3dc, _comp, sN_1, false, out sN_1_m_err);
if (sN_1_m_err == MappingError.NONE)
{
// mapping successful
string p_key = MappingComponent.PREFIX_P3DC + p3dc.ID_primary.ToString() +
"_" + p3dc.ID_secondary.ToString();
if (!(correspondencies.Where(x => x.Key == p_key).Count() > 0) && !(new_correspondencies.Where(x => x.Key == p_key).Count() > 0))
{
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(p_key, sN_1));
}
match_w_geometry_found = true;
}
}
}
}
if (!match_w_geometry_found)
{
// try to match it to a sub-component -> RECURSION
if (sN.SubNodes != null && sN.SubNodes.Count > 0)
{
foreach (TypeNode ssN in sN.SubNodes)
{
int nr_current_correspondencies = correspondencies.Count;
// attempt a matching
foreach (var entry in _comp.ContainedComponents)
{
Component sC = entry.Value;
if (sC == null)
{
continue;
}
MappingError sC_err = MappingError.NONE;
MappingComponent.MatchStructure(sC, ssN, ref correspondencies, out sC_err);
if (sC_err == MappingError.NONE && correspondencies.Count > nr_current_correspondencies)
{
// success
break;
}
}
}
}
}
}
}
}
else if (sN.BindingType == TypeNodeContentBindingType.KEY)
{
// pass the ID of the component
string key_id = MappingComponent.PREFIX_ID + _comp.ID.ToString();
if (!(correspondencies.Where(x => x.Key == key_id).Count() > 0) && !(new_correspondencies.Where(x => x.Key == key_id).Count() > 0))
{
new_correspondencies.Add(new KeyValuePair <string, TypeNode>(key_id, sN));
transferred_id = true;
}
}
else if (sN.BindingType == TypeNodeContentBindingType.COMPLEX)
{
// try to match it to a sub-component -> RECURSION
if (sN.SubNodes != null && sN.SubNodes.Count > 0)
{
foreach (TypeNode ssN in sN.SubNodes)
{
int nr_current_correspondencies = correspondencies.Count;
// attempt a matching
foreach (var entry in _comp.ContainedComponents)
{
Component sC = entry.Value;
if (sC == null)
{
continue;
}
MappingError sC_err = MappingError.NONE;
MappingComponent.MatchStructure(sC, ssN, ref correspondencies, out sC_err);
if (sC_err == MappingError.NONE && correspondencies.Count > nr_current_correspondencies)
{
// success
break;
}
}
}
}
}
}
if ((new_correspondencies.Count < 2) || (new_correspondencies.Count < 3 && transferred_id))
{
// only a match at the highest level -> not enough -> do not add
}
else
{
// the method traverses the component from BOTTOM to TOP
// the mapping is performed TOP to BOTTOM -> insert at the start
for (int i = 0; i < new_correspondencies.Count; i++)
{
var entry = new_correspondencies[i];
correspondencies.Insert(i, new KeyValuePair <string, TypeNode>(entry.Key, entry.Value));
}
}
}
