static void Main(string[] args)
{
_dbConn = DB.CreateConnection();
for (int i = 0; i < 100; i++)
{
// Randomize
RandomizedBuilding randomized = Randomize.Random();
// Generate Serialized Model from randomization
// Includes wall layouts, boundary info, and mass
// TODO Anthonie to link up
var serializedModel = new SerializedModel();
// Feed it through the rigid analysis
var manager = new AnalysisManager(serializedModel);
WallCostCharacterization wallCostCharacterization = manager.Run();
// Write to csv
string executingPath = Path.GetDirectoryName(Assembly.GetExecutingAssembly().Location);
string fpath = Path.Combine(executingPath, @"DataOutput\testData.csv");
wallCostCharacterization.WriteToCSV(fpath);
// Output to SQL Lite db
wallCostCharacterization.WriteToDB(_dbConn);
}
}
public static SerializedModel CreateSerializedModel(string unitDefCSVPath, BuildingUnitMix desiredUnitMix, Seismicity seismicity, double buildingHeight, int numberOfStories, Line2D mainCorridor, Line2D leftLeg, Line2D middleLeg, Line2D rightLeg, double unitDepth, double hallWidth, RandomizedBuilding randomizedBuilding)
{
double randomizedPercent = 0.75;
var importedUnitList = new List <BuildingUnit>();
var csv = File.ReadAllLines(unitDefCSVPath);
for (int i = 1; i < csv.Length; i++)
{
var lineSplit = csv[i].Split(',');
importedUnitList.Add(new BuildingUnit(lineSplit[0], lineSplit[1], Convert.ToDouble(lineSplit[2]), Convert.ToDouble(lineSplit[3]), Convert.ToDouble(lineSplit[4]), Convert.ToDouble(lineSplit[5])));
}
List <Polygon2D> polyUnits = new List <Polygon2D>();
List <string> unitNames = new List <string>();
List <Line2D> shearWallLines = new List <Line2D>();
List <Line2D> lineList = new List <Line2D>();
MainCorridor mainCorridorObject = new MainCorridor();
FittingAlgorithm.GetBuildingLayout(importedUnitList, desiredUnitMix, mainCorridor, leftLeg, middleLeg, rightLeg, unitDepth, hallWidth, out polyUnits, out unitNames, out shearWallLines, out lineList, out mainCorridorObject);
var outlinePoints = FittingAlgorithm.GetOutlinePoints(unitDepth, hallWidth, mainCorridorObject);
var outlinePolygon = new Polygon2D(outlinePoints);
return(new SerializedModel(buildingHeight, numberOfStories, seismicity, shearWallLines, lineList, outlinePolygon, polyUnits, randomizedBuilding, randomizedPercent));
}
public SerializedModel(double buildingHeight, int numberOfStories, Seismicity seismicity, List <Line2D> wallLines, List <Line2D> corridorLines, Polygon2D outline, List <Polygon2D> unitBoundaries, RandomizedBuilding randomizedBuilding, double randomizedPercent)
{
var levels = new List <BuildingLevel>();
for (int i = 1; i <= numberOfStories; i++)
{
levels.Add(new BuildingLevel("LEVEL_" + i, buildingHeight * i));
}
ModelSettings = new ModelSettings(buildingHeight);
var systemParameters = new SystemParameters();
var seismicBaseLevel = new BuildingLevel("BASE", 0);
var buildingParameters = new BuildingParameters(seismicBaseLevel);
SeismicParameters = new SeismicParameters(systemParameters, buildingParameters, seismicity);
var bearingWalls = new List <BearingWall>();
var oneWayDecks = new List <OneWayDeck>();
Random random = new Random();
int test = random.Next(0, 2);
foreach (var level in levels)
{
var wallLineID = 1;
foreach (var wallLine in wallLines)
{
if (random.NextDouble() < randomizedPercent)
{
var wallId = level.Name + "_" + wallLineID;
bearingWalls.Add(new BearingWall(wallId, wallLine, level));
wallLineID += 1;
}
}
foreach (var wallLine in corridorLines)
{
var wallId = level.Name + "_" + wallLineID;
bearingWalls.Add(new BearingWall(wallId, wallLine, level));
wallLineID += 1;
}
oneWayDecks.Add(new OneWayDeck(outline, level));
}
OneWayDecks = oneWayDecks;
UnitBoundaries = unitBoundaries;
}
