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#ifndef ADAPTIVEFIELD_H
#define ADAPTIVEFIELD_H
using namespace std;
class AdaptiveFieldCell;
class AdaptiveField
{
friend class AdaptiveFieldCell;
public:
AdaptiveField();
virtual ~AdaptiveField();
bool Generate(double radius, float resolution, bool generateGeometry); // Create
unsigned int GetMaxLod(){return m_MaxLOD;};
double GetFieldSize(){return m_FieldSize;};
protected:
private:
float m_FixedClamp; // fixed clamp - Perlin clamp level
unsigned int m_MaxLOD; // Maximum LOD
double m_FieldSize; // field size - can be number of polys (resolution)
vector<AdaptiveFieldCell *> m_PatchRegion; // Adaptive field;
unsigned int m_Iteration; // Used this passed for interation
};
#endif // ADAPTIVEFIELD_H
// field size is the physical size
// m_field size is the sizw
#include <memory>
#include <vector>
#include <cmath>
#include "../include/AdaptiveField.h"
#include "../include/AdaptiveFieldCell.h"
AdaptiveField::AdaptiveField()
{
m_PatchRegion.resize(8);
}
AdaptiveField::~AdaptiveField()
{
}
// Generate each area field
bool AdaptiveField::Generate(double radius, float resolution, bool generateGeometry)
{
// generate maxLOD;
m_MaxLOD = (unsigned int)log2((float)(2.0f * 3.14 * radius) / 4/.0f);
// override
m_MaxLOD = 2;
// radius is twice -- use for simplex
m_FieldSize = radius*2;
// default interation
m_Iteration=1;
// resize
// Generate - translation would be x,y,z but flat
for(unsigned int x=0; x<2; x++)
{
for(unsigned int y=0; y<2; y++)
{
for(unsigned int z=0; z<2; z++)
{
// Generate Cell
AdaptiveFieldCell * newPatch = new AdaptiveFieldCell();
newPatch->SetField(this);
// Set locatoin
newPatch->SetLocation(x,y,z);
// add a new patch recursively till the final
m_PatchRegion.push_back(newPatch);
// Generate patch
newPatch->Generate(m_Iteration+1);
}
}
}
return false;
}
#ifndef ADAPTIVEFIELDCELL_H
#define ADAPTIVEFIELDCELL_H
using namespace std;
class AdaptiveField;
struct bVector3
{
bool x_;
bool y_;
bool z_;
};
struct uVector3
{
unsigned int x;
unsigned int y;
unsigned int z;
};
// maybe can be similiar to terrainpatch
class AdaptiveFieldCell
{
public:
AdaptiveFieldCell();
virtual ~AdaptiveFieldCell();
// Generate new cell
virtual bool Generate(unsigned int interation);
// Save root location
void SetLocation(unsigned int x, unsigned int y, unsigned int z)
{
m_Location.x = x;
m_Location.y = y;
m_Location.z = z;
};
void SetField(AdaptiveField * passedField)
{
m_ParentField = passedField;
};
protected:
private:
vector <AdaptiveFieldCell *> m_PatchRegion; // not set based on interation can be 8 or 1;
bool m_IsLeaf; // Final
bool m_IsSolid; // Solid
AdaptiveField * m_ParentField; // Parent Field;
unsigned int m_Iteration; // iteration
uVector3 m_Location; // Location
};
#endif // ADAPTIVEFIELDCELL_H
#include <memory>
#include <vector>
#include <iostream>
#include "../include/AdaptiveField.h"
#include "../include/AdaptiveFieldCell.h"
AdaptiveFieldCell::AdaptiveFieldCell()
{
// Create region here
// m_PatchRegion = new vector<AdaptiveFieldCell *>;
m_PatchRegion.resize(8);
}
AdaptiveFieldCell::~AdaptiveFieldCell()
{
}
bool AdaptiveFieldCell::Generate(unsigned int interation=1)
{
// if interaction
if(interation>m_ParentField->GetMaxLod())
{
m_IsLeaf=true;
m_Iteration = m_ParentField->GetMaxLod();
}
else
{
m_IsLeaf=false;
m_Iteration = interation;
}
// if generate patch
if(m_IsLeaf==false)
{
m_PatchRegion.resize(8);for(unsigned int x=0; x<2; x++)
{
for(unsigned int y=0; y<2; y++)
{
for(unsigned int z=0; z<2; z++)
{
// Generate Cell
AdaptiveFieldCell * newPatch = (AdaptiveFieldCell *) new AdaptiveFieldCell;
// Set Location
newPatch->SetLocation(x,y,z);
// set field
newPatch->SetField(m_ParentField);
// add a new patch recursively till the final
m_PatchRegion.push_back(newPatch);
// Generate patch
newPatch->Generate(m_Iteration++);
}
}
}
}
// if generate patch
if(m_IsLeaf==true)
{
// Bit manipulation
float sizecell=m_ParentField->GetFieldSize()/(1<<m_Iteration);
cout << sizecell << endl;
}
return false;
}
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