void World::FindContinentNeighbors()
{
sint16 center_cont;
MapPoint center;
MapPoint test_cont;
bool is_land = false;
AllocateNeighborMem();
for(center.x=0; center.x<m_size.x; center.x++) {
for(center.y=0; center.y<m_size.y; center.y++) {
GetContinent(center, center_cont, is_land);
Assert(0 <= center_cont);
if (center_cont < 0) continue;
if(center.GetNeighborPosition(NORTHWEST, test_cont))
FindAContinentNeighbor(center_cont, test_cont, is_land);
if(center.GetNeighborPosition(WEST, test_cont))
FindAContinentNeighbor(center_cont, test_cont, is_land);
if(center.GetNeighborPosition(SOUTHWEST, test_cont))
FindAContinentNeighbor(center_cont, test_cont, is_land);
if(center.GetNeighborPosition(SOUTH, test_cont))
FindAContinentNeighbor(center_cont, test_cont, is_land);
}
}
}
void World::FindContinentSize()
{
m_water_size->ExtendNFlat(m_water_continent_max);
sint32 i;
for (i=0; i<m_water_continent_max; i++) {
m_water_size->Access(i) = 0;
}
sint32 diff = m_land_continent_max - LAND_CONTINENT_START;
m_land_size->ExtendNFlat(diff);
for (i=0; i<diff; i++) {
m_land_size->Access(i) = 0;
}
bool is_land;
sint16 cont;
MapPoint pos;
for (pos.x = 0; pos.x<m_size.x; pos.x++) {
for (pos.y=0; pos.y<m_size.y; pos.y++) {
GetContinent(pos, cont, is_land);
if (is_land) {
m_land_size->Access(cont)++;
} else {
m_water_size->Access(cont)++;
}
}
}
}
void World::FindAContinentNeighbor
(
sint32 center_cont,
MapPoint & test_point,
bool is_land
)
{
bool is_neighbor_land = false;
sint16 test_cont;
GetContinent(test_point, test_cont, is_neighbor_land);
if (is_land && !is_neighbor_land) {
InsertLandNextToWater(center_cont, test_cont);
InsertWaterNextToLand(test_cont, center_cont);
} else if (!is_land && is_neighbor_land) {
InsertWaterNextToLand(center_cont, test_cont);
InsertLandNextToWater(test_cont, center_cont);
}
}
CGenerator CContinent::GetContinent()
{
superficies = 0;
vector<int> array;
int end = 0;
int x,y;
do
{
x = rand()%(area_size-2)+1;
y = rand()%(area_size-2)+1;
}
while(surface[GetUnit(glm::ivec2(x,y))] != 0);
///GetObj(glm::ivec3(x,y,0)) = 1;
surface[GetUnit(glm::ivec2(x,y))] = 3;
x_max = x_min = x;
y_max = y_min = y;
array.push_back(x+1);
array.push_back(y);
array.push_back(x);
array.push_back(y+1);
array.push_back(x-1);
array.push_back(y);
array.push_back(x);
array.push_back(y-1);
surface[GetUnit(glm::ivec2(x+1,y))] = 2;
surface[GetUnit(glm::ivec2(x,y+1))] = 2;
surface[GetUnit(glm::ivec2(x-1,y))] = 2;
surface[GetUnit(glm::ivec2(x,y-1))] = 2;
end += 8;
int offset;
while( end > 0 )
{
offset = (rand()%end)/2;
offset *= 2;
x = array[offset];
y = array[offset+1];
if(surface[GetUnit(glm::ivec2(x,y))] == 2)
{
surface[GetUnit(glm::ivec2(x,y))] = 3;
border(x,y);
///GetObj(glm::ivec3(x,y,0)) = 1;
}
array[offset] = array[end-2];
array[offset+1] = array[end-1];
end -= 2;
if( x+1 >= 0 and x+1 < area_size and y >= 0 and y < area_size and surface[GetUnit(glm::ivec2(x+1,y))] == 0)
{
if(end == array.size())
{
array.push_back(x+1);
array.push_back(y);
}
else
{
array[end] = x+1;
array[end+1] = y;
}
surface[GetUnit(glm::ivec2(x+1,y))] = 2;
end += 2;
}
if( x >= 0 and x < area_size and y+1 >= 0 and y+1 < area_size and surface[GetUnit(glm::ivec2(x,y+1))] == 0)
{
if(end == array.size())
{
array.push_back(x);
array.push_back(y+1);
}
else
{
array[end] = x;
array[end+1] = y+1;
}
surface[GetUnit(glm::ivec2(x,y+1))] = 2;
end += 2;
}
if(x-1 >= 0 and x-1 < area_size and y >= 0 and y < area_size and surface[GetUnit(glm::ivec2(x-1,y))] == 0 )
{
if(end == array.size())
{
array.push_back(x-1);
array.push_back(y);
}
else
{
array[end] = x-1;
array[end+1] = y;
}
surface[GetUnit(glm::ivec2(x-1,y))] = 2;
end += 2;
}
if( x >= 0 and x < area_size and y-1 >= 0 and y-1 < area_size and surface[GetUnit(glm::ivec2(x,y-1))] == 0)
{
if(end == array.size())
{
array.push_back(x);
array.push_back(y-1);
}
else
{
array[end] = x;
array[end+1] = y-1;
}
surface[GetUnit(glm::ivec2(x,y-1))] = 2;
end += 2;
}
}
///for(int i = 0 ; i < area_size ; i++)
/// for(int j = 0 ; j < area_size ; j++)
/// if(surface[GetUnit(glm::ivec2(i,j))])
/// GetObj(glm::ivec3(i,j,0)) = 1;
if( y_max >= area_size-1 or x_max >= area_size-1 or y_min <= 0 or x_min <= 0)
return GetContinent();
///cout << x_max << " " << y_max << " " << x_min << " " << y_min << endl;
int x_size = x_max - x_min;
int y_size = y_max - y_min;
int scale = (x_size > y_size)?(area_size/x_size):(area_size/y_size);
if(scale > 3)
scale = 3;
scale--;
int shift_x = area_size/2 - (x_size*scale)/2;
int shift_y = area_size/2 - (y_size*scale)/2;
for(int i = 0 ; i < x_size ; i++)
for(int j = 0 ; j < y_size ; j++)
{
for(int k = i*scale ; k < (i+1)*scale ; k++)
for(int l = j*scale ; l < (j+1)*scale ; l++)
{
if(surface[GetUnit(glm::ivec2(i+x_min,j+y_min))] == 3)
GetObj(glm::ivec3(k+shift_x,l+shift_y,0)) = 1;
superficies++;
}
}
for(int k = 0 ; k < scale ; k++)
for(int i = 0 ; i < area_size ; i++)
for(int j = 0 ; j < area_size ; j++)
if(GetObj(glm::ivec3(i,j,0)) == 1)
{
if(GetObj(glm::ivec3(i+1,j,0)) == 0)
if(rand()%3 == 1)
{
GetObj(glm::ivec3(i+1,j,0)) = 1;
border(i+1,j);
superficies++;
}
if(GetObj(glm::ivec3(i,j+1,0)) == 0)
if(rand()%3 == 1)
{
GetObj(glm::ivec3(i,j+1,0)) = 1;
border(i,j+1);
superficies++;
}
if(GetObj(glm::ivec3(i-1,j,0)) == 0)
if(rand()%3 == 1)
{
GetObj(glm::ivec3(i-1,j,0)) = 1;
border(i-1,j);
superficies++;
}
if(GetObj(glm::ivec3(i,j-1,0)) == 0)
if(rand()%3 == 1)
{
GetObj(glm::ivec3(i,j-1,0)) = 1;
border(i,j-1);
superficies++;
}
}
smooth(0,1);
smooth(0,1);
smooth(0,1);
x_size = x_max - x_min;
y_size = y_max - y_min;
CHill hill(x_size,y_size,10); ///! 10
for(int i = x_min ; i < x_max ; i++)
for(int j = y_min ; j < y_max ; j++)
{
if(GetObj(glm::ivec3(i,j,0)) == 1)
{
hill.GetObj(glm::ivec3(i-x_min,j-y_min,0)) = 1;
}
}
hill.generate(superficies*0.8 , 0.8);
return std::move((CGenerator)hill);
}
bool World::IsOnSameContinent(const MapPoint & pos1, const MapPoint & pos2) const
{
return GetContinent(pos1) == GetContinent(pos2);
}
