//-------------------------------------------------------------------------------------
bool ScriptDefModule::addPropertyDescription(const char* attrName,
PropertyDescription* propertyDescription,
COMPONENT_TYPE componentType)
{
PropertyDescription* f_propertyDescription = NULL;
PROPERTYDESCRIPTION_MAP* propertyDescr;
PROPERTYDESCRIPTION_UIDMAP* propertyDescr_uidmap;
switch(componentType)
{
case CELLAPP_TYPE:
f_propertyDescription = findCellPropertyDescription(attrName);
propertyDescr = &getCellPropertyDescriptions();
propertyDescr_uidmap = &getCellPropertyDescriptions_uidmap();
// 判断他们是什么级别的属性， 将其保存到对应detailLevel的地方
if((propertyDescription->getFlags() & ENTITY_CLIENT_DATA_FLAGS) > 0){
cellDetailLevelPropertyDescrs_[propertyDescription->getDetailLevel()][attrName] = propertyDescription;
}
setCell(true);
break;
case BASEAPP_TYPE:
f_propertyDescription = findBasePropertyDescription(attrName);
propertyDescr = &getBasePropertyDescriptions();
propertyDescr_uidmap = &getBasePropertyDescriptions_uidmap();
setBase(true);
break;
default:
f_propertyDescription = findClientPropertyDescription(attrName);
propertyDescr = &getClientPropertyDescriptions();
propertyDescr_uidmap = &getClientPropertyDescriptions_uidmap();
setClient(true);
break;
};
if(f_propertyDescription)
{
ERROR_MSG(boost::format("ScriptDefModule::addPropertyDescription: [%1%] is exist! componentType=%2%.\n") %
attrName % componentType);
return false;
}
(*propertyDescr)[attrName] = propertyDescription;
(*propertyDescr_uidmap)[propertyDescription->getUType()] = propertyDescription;
propertyDescription->incRef();
// 判断是否是存储属性， 是就存储到persistentPropertyDescr_
if(propertyDescription->isPersistent())
{
PROPERTYDESCRIPTION_MAP::const_iterator pciter =
persistentPropertyDescr_.find(attrName);
if(pciter == persistentPropertyDescr_.end())
{
persistentPropertyDescr_[attrName] = propertyDescription;
persistentPropertyDescr_uidmap_[propertyDescription->getUType()] = propertyDescription;
}
}
return true;
}
Cell::Cell(int r , int c , int v)
{
setCell(r,c,v);
}
void UINumberPicker::updateDisplayList()
{
_selectedItem = nullptr;
_itemsLayer->removeAllChildrenWithCleanup(true);
sortChildrenArray.clear();
displayRect.size = getContentSize();
displayRect.origin = getParent()->convertToWorldSpace(getPosition());
int numOfCell = virtualItemCount + 2;
m_middleCellIndex = (int)numOfCell/2;
if (show_value < m_minValue || show_value > m_maxValue)
{
show_value = m_minValue;
}
int upIndex = show_value - 1;
int downIndex = show_value;
for (int i = 0; i < numOfCell; i++)
{
auto cell = PickerCell::create();
cell->setContentSize(Size(item_width, item_height));
cell->setDirection(_pickerDirection);
switch (_pickerDirection)
{
case PickerDirection::VERTICAL:
{
cell->setPositionX(getContentSize().width/2);
if (i <= m_middleCellIndex)
{
cell->setPositionY((m_middleCellIndex - i) * item_height);
cell->setCellValue(downIndex);
downIndex += 1;
if (downIndex > m_maxValue)
{
downIndex = m_minValue;
}
}
else
{
cell->setPositionY(i * item_height);
if (upIndex < m_minValue)
{
upIndex = m_maxValue;
}
cell->setCellValue(upIndex);
upIndex -= 1;
}
break;
}
case PickerDirection::HORIZONTAL:
{
cell->setPositionY(0);
if (i <= m_middleCellIndex)
{
cell->setPositionX((m_middleCellIndex - i) * item_width);
cell->setCellValue(downIndex);
downIndex += 1;
if (downIndex > m_maxValue)
{
downIndex = m_minValue;
}
}
else
{
cell->setPositionX(i * item_width);
if (upIndex < m_minValue)
{
upIndex = m_maxValue;
}
cell->setCellValue(upIndex);
upIndex -= 1;
}
break;
}
default:
break;
}
if (i == 0)
{
setCell(cell);
}
sortChildrenArray.push_back(cell);
_itemsLayer->addChild(cell);
}
}
void collision_detection::StaticDistanceField::initialize(
const bodies::Body& body,
double resolution,
double space_around_body,
bool save_points)
{
points_.clear();
inv_twice_resolution_ = 1.0 / (2.0 * resolution);
logInform(" create points at res=%f",resolution);
EigenSTL::vector_Vector3d points;
determineCollisionPoints(body, resolution, points);
if (points.empty())
{
logWarn(" StaticDistanceField::initialize: No points in body. Using origin.");
points.push_back(body.getPose().translation());
if (body.getType() == shapes::MESH)
{
const bodies::ConvexMesh& mesh = dynamic_cast<const bodies::ConvexMesh&>(body);
const EigenSTL::vector_Vector3d& verts = mesh.getVertices();
logWarn(" StaticDistanceField::initialize: also using %d vertices.", int(verts.size()));
EigenSTL::vector_Vector3d::const_iterator it = verts.begin();
EigenSTL::vector_Vector3d::const_iterator it_end = verts.end();
for ( ; it != it_end ; ++it)
{
points.push_back(*it);
}
}
}
logInform(" StaticDistanceField::initialize: Using %d points.", points.size());
AABB aabb;
aabb.add(points);
logInform(" space_around_body = %f",space_around_body);
logInform(" DF: min=(%7.3f %7.3f %7.3f) max=(%7.3f %7.3f %7.3f) (pre-space)",
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
aabb.max_.x(),
aabb.max_.y(),
aabb.max_.z());
aabb.min_ -= Eigen::Vector3d(space_around_body, space_around_body, space_around_body);
aabb.max_ += Eigen::Vector3d(space_around_body, space_around_body, space_around_body);
logInform(" DF: min=(%7.3f %7.3f %7.3f) max=(%7.3f %7.3f %7.3f) (pre-adjust)",
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
aabb.max_.x(),
aabb.max_.y(),
aabb.max_.z());
aabb.min_.x() = std::floor(aabb.min_.x() / resolution) * resolution;
aabb.min_.y() = std::floor(aabb.min_.y() / resolution) * resolution;
aabb.min_.z() = std::floor(aabb.min_.z() / resolution) * resolution;
logInform(" DF: min=(%7.3f %7.3f %7.3f) max=(%7.3f %7.3f %7.3f) (post-adjust)",
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
aabb.max_.x(),
aabb.max_.y(),
aabb.max_.z());
Eigen::Vector3d size = aabb.max_ - aabb.min_;
double diagonal = size.norm();
logInform(" DF: sz=(%7.3f %7.3f %7.3f) cnt=(%d %d %d) diag=%f",
size.x(),
size.y(),
size.z(),
int(size.x()/resolution),
int(size.y()/resolution),
int(size.z()/resolution),
diagonal);
distance_field::PropagationDistanceField df(
size.x(),
size.y(),
size.z(),
resolution,
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
diagonal * 2.0,
true);
df.addPointsToField(points);
DistPosEntry default_entry;
default_entry.distance_ = diagonal * 2.0;
default_entry.cell_id_ = -1;
resize(size.x(),
size.y(),
size.z(),
resolution,
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
default_entry);
logInform(" copy %d points.",
getNumCells(distance_field::DIM_X) *
getNumCells(distance_field::DIM_Y) *
getNumCells(distance_field::DIM_Z));
int pdf_x,pdf_y,pdf_z;
int sdf_x,sdf_y,sdf_z;
Eigen::Vector3d pdf_p, sdf_p;
df.worldToGrid(aabb.min_.x(), aabb.min_.y(), aabb.min_.z(), pdf_x,pdf_y,pdf_z);
worldToGrid(aabb.min_.x(), aabb.min_.y(), aabb.min_.z(), sdf_x,sdf_y,sdf_z);
df.gridToWorld(pdf_x,pdf_y,pdf_z, pdf_p.x(), pdf_p.y(), pdf_p.z());
gridToWorld(sdf_x,sdf_y,sdf_z, sdf_p.x(), sdf_p.y(), sdf_p.z());
logInform(" DF: min=(%10.6f %10.6f %10.6f) quant->%3d %3d %3d (pdf)",
aabb.min_.x(),
aabb.min_.y(),
aabb.min_.z(),
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: min=(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (pdf)",
pdf_p.x(),
pdf_p.y(),
pdf_p.z(),
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: min=(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (sdf)",
sdf_p.x(),
sdf_p.y(),
sdf_p.z(),
sdf_x,
sdf_y,
sdf_z);
df.worldToGrid(0,0,0, pdf_x,pdf_y,pdf_z);
worldToGrid(0,0,0, sdf_x,sdf_y,sdf_z);
df.gridToWorld(pdf_x,pdf_y,pdf_z, pdf_p.x(), pdf_p.y(), pdf_p.z());
gridToWorld(sdf_x,sdf_y,sdf_z, sdf_p.x(), sdf_p.y(), sdf_p.z());
logInform(" DF: org=(%10.6f %10.6f %10.6f) quant->%3d %3d %3d (pdf)",
0.0,
0.0,
0.0,
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: org=(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (pdf)",
pdf_p.x(),
pdf_p.y(),
pdf_p.z(),
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: org=(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (sdf)",
sdf_p.x(),
sdf_p.y(),
sdf_p.z(),
sdf_x,
sdf_y,
sdf_z);
df.worldToGrid(points[0].x(), points[0].y(), points[0].z(), pdf_x,pdf_y,pdf_z);
worldToGrid(points[0].x(), points[0].y(), points[0].z(), sdf_x,sdf_y,sdf_z);
df.gridToWorld(pdf_x,pdf_y,pdf_z, pdf_p.x(), pdf_p.y(), pdf_p.z());
gridToWorld(sdf_x,sdf_y,sdf_z, sdf_p.x(), sdf_p.y(), sdf_p.z());
logInform(" DF: p0 =(%10.6f %10.6f %10.6f) quant->%3d %3d %3d (pdf)",
points[0].x(),
points[0].y(),
points[0].z(),
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: p0 =(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (pdf)",
pdf_p.x(),
pdf_p.y(),
pdf_p.z(),
pdf_x,
pdf_y,
pdf_z);
logInform(" DF: p0 =(%10.6f %10.6f %10.6f) quant<-%3d %3d %3d (sdf)",
sdf_p.x(),
sdf_p.y(),
sdf_p.z(),
sdf_x,
sdf_y,
sdf_z);
for (int z = 0 ; z < df.getZNumCells() ; ++z)
{
for (int y = 0 ; y < df.getYNumCells() ; ++y)
{
for (int x = 0 ; x < df.getXNumCells() ; ++x)
{
DistPosEntry entry;
double dist = df.getDistance(x, y, z);
const distance_field::PropDistanceFieldVoxel& voxel = df.getCell(x,y,z);
if (dist < 0)
{
// propogation distance field has a bias of -1*resolution on points inside the object
if (dist <= -resolution)
{
dist += resolution;
}
else
{
logError("PropagationDistanceField returned distance=%f between 0 and -resolution=%f."
" Did someone fix it?"
" Need to remove workaround from static_distance_field.cpp",
dist,-resolution);
dist = 0.0;
}
entry.distance_ = dist;
entry.cell_id_ = getCellId(
voxel.closest_negative_point_.x(),
voxel.closest_negative_point_.y(),
voxel.closest_negative_point_.z());
}
else
{
entry.distance_ = dist;
entry.cell_id_ = getCellId(
voxel.closest_point_.x(),
voxel.closest_point_.y(),
voxel.closest_point_.z());
}
setCell(x, y, z, entry);
}
}
}
if (save_points)
std::swap(points, points_);
}
//-------------------------------------------------------------------------------------
void ScriptDefModule::autoMatchCompOwn()
{
/*
entity存在某部分(cell, base, client)的判定规则
1: entitydef文件中存在实体某部分的方法或者属性，同时也必须也存在py脚本
2: 用户在entities.xml明确声明存在某实体部分(为了unity3d或者html5类的前端无法加载py的环境考虑)
entities.xml， <Spaces hasCell="true" hasClient="false", hasBase="true"></Spaces>
*/
std::string entitiesFile = Resmgr::getSingleton().getPyUserScriptsPath() + "entities.xml";
// 打开这个entities.xml文件
SmartPointer<XML> xml(new XML());
if(!xml->openSection(entitiesFile.c_str()) || !xml->isGood())
return;
// 获得entities.xml根节点, 如果没有定义一个entity那么直接返回true
TiXmlNode* node = xml->getRootNode();
if(node == NULL)
return;
int assertionHasClient = -1;
int assertionHasBase = -1;
int assertionHasCell = -1;
// 开始遍历所有的entity节点
XML_FOR_BEGIN(node)
{
std::string moduleName = xml.get()->getKey(node);
if(name_ == moduleName)
{
const char* val = node->ToElement()->Attribute("hasClient");
if(val)
{
if(kbe_strnicmp(val, "true", strlen(val)) == 0)
assertionHasClient = 1;
else
assertionHasClient = 0;
}
EntityDef::md5().append((void*)&assertionHasClient, sizeof(int));
val = node->ToElement()->Attribute("hasCell");
if(val)
{
if(kbe_strnicmp(val, "true", strlen(val)) == 0)
assertionHasCell = 1;
else
assertionHasCell = 0;
}
EntityDef::md5().append((void*)&assertionHasClient, sizeof(int));
val = node->ToElement()->Attribute("hasBase");
if(val)
{
if(kbe_strnicmp(val, "true", strlen(val)) == 0)
assertionHasBase = 1;
else
assertionHasBase = 0;
}
EntityDef::md5().append((void*)&assertionHasClient, sizeof(int));
break;
}
}
XML_FOR_END(node);
std::string fmodule = "scripts/client/" + name_ + ".py";
std::string fmodule_pyc = "scripts/client/"SCRIPT_BIN_CACHEDIR"/" + name_ + "."SCRIPT_BIN_TAG".pyc";
if(Resmgr::getSingleton().matchRes(fmodule) != fmodule ||
Resmgr::getSingleton().matchRes(fmodule_pyc) != fmodule_pyc)
{
setClient(true);
}
else
{
if(assertionHasClient < 0)
{
// 如果用户不存在明确声明并设置为没有对应实体部分
// 这样做的原因是允许用户在def文件定义这部分的内容(因为interface的存在，interface中可能会存在客户端属性或者方法)
// 但如果脚本不存在仍然认为用户当前不需要该部分
// http://www.kbengine.org/cn/docs/configuration/entities.html
setClient(false);
}
else
{
// 用户明确声明并进行了设定
setClient(assertionHasClient == 1);
}
}
if(g_componentType == CLIENT_TYPE)
{
setBase(true);
setCell(true);
return;
}
fmodule = "scripts/base/" + name_ + ".py";
fmodule_pyc = "scripts/base/"SCRIPT_BIN_CACHEDIR"/" + name_ + "."SCRIPT_BIN_TAG".pyc";
if(Resmgr::getSingleton().matchRes(fmodule) != fmodule ||
Resmgr::getSingleton().matchRes(fmodule_pyc) != fmodule_pyc)
{
setBase(true);
}
else
{
if(assertionHasBase < 0)
{
// 如果用户不存在明确声明并设置为没有对应实体部分
// 这样做的原因是允许用户在def文件定义这部分的内容
// 但如果脚本不存在仍然认为用户当前不需要该部分
setBase(false);
}
else
{
// 用户明确声明并进行了设定
setBase(assertionHasBase == 1);
}
}
fmodule = "scripts/cell/" + name_ + ".py";
fmodule_pyc = "scripts/cell/"SCRIPT_BIN_CACHEDIR"/" + name_ + "."SCRIPT_BIN_TAG".pyc";
if(Resmgr::getSingleton().matchRes(fmodule) != fmodule ||
Resmgr::getSingleton().matchRes(fmodule_pyc) != fmodule_pyc)
{
setCell(true);
}
else
{
if(assertionHasCell < 0)
{
// 如果用户不存在明确声明并设置为没有对应实体部分
// 这样做的原因是允许用户在def文件定义这部分的内容
// 但如果脚本不存在仍然认为用户当前不需要该部分
setCell(false);
}
else
{
// 用户明确声明并进行了设定
setCell(assertionHasCell == 1);
}
}
}
void LifeModel::setCellOn(int row, int col)
{
setCell(row, col, 1);
}
//-------------------------------------------------------------------------------------
bool ScriptDefModule::addPropertyDescription(const char* attrName,
PropertyDescription* propertyDescription,
COMPONENT_TYPE componentType, bool ignoreConflict)
{
if(!ignoreConflict && hasMethodName(attrName))
{
ERROR_MSG(fmt::format("ScriptDefModule::addPropertyDescription: There is a method[{}] name conflict! componentType={}.\n",
attrName, componentType));
return false;
}
if (!ignoreConflict && hasComponentName(attrName))
{
ERROR_MSG(fmt::format("ScriptDefModule::addPropertyDescription: There is a component[{}] name conflict!\n",
attrName));
return false;
}
bool isEntityComponent = propertyDescription->getDataType() &&
std::string("ENTITY_COMPONENT") == propertyDescription->getDataType()->getName();
PropertyDescription* f_propertyDescription = NULL;
PROPERTYDESCRIPTION_MAP* propertyDescr;
PROPERTYDESCRIPTION_UIDMAP* propertyDescr_uidmap;
switch(componentType)
{
case CELLAPP_TYPE:
f_propertyDescription = findCellPropertyDescription(attrName);
propertyDescr = &getCellPropertyDescriptions();
propertyDescr_uidmap = &getCellPropertyDescriptions_uidmap();
// 判断他们是什么级别的属性， 将其保存到对应detailLevel的地方
if((propertyDescription->getFlags() & ENTITY_CLIENT_DATA_FLAGS) > 0){
cellDetailLevelPropertyDescrs_[propertyDescription->getDetailLevel()][attrName] = propertyDescription;
}
setCell(true);
break;
case BASEAPP_TYPE:
f_propertyDescription = findBasePropertyDescription(attrName);
propertyDescr = &getBasePropertyDescriptions();
propertyDescr_uidmap = &getBasePropertyDescriptions_uidmap();
setBase(true);
break;
default:
f_propertyDescription = findClientPropertyDescription(attrName);
propertyDescr = &getClientPropertyDescriptions();
propertyDescr_uidmap = &getClientPropertyDescriptions_uidmap();
setClient(true);
break;
};
if(f_propertyDescription)
{
ERROR_MSG(fmt::format("ScriptDefModule::addPropertyDescription: [{}] is exist! componentType={}.\n",
attrName, componentType));
return false;
}
(*propertyDescr)[attrName] = propertyDescription;
(*propertyDescr_uidmap)[propertyDescription->getUType()] = propertyDescription;
propertyDescription->incRef();
if(isEntityComponent)
componentPropertyDescr_[attrName] = propertyDescription;
// 判断是否是存储属性， 是就存储到persistentPropertyDescr_
if(propertyDescription->isPersistent())
{
PROPERTYDESCRIPTION_MAP::const_iterator pciter =
persistentPropertyDescr_.find(attrName);
if(pciter == persistentPropertyDescr_.end())
{
persistentPropertyDescr_[attrName] = propertyDescription;
persistentPropertyDescr_uidmap_[propertyDescription->getUType()] = propertyDescription;
}
}
return true;
}
void Grid::setRow( int r, int c, QWidget* w, int count )
{
for (int i = 0; i < count; i++ )
setCell( r, c + i, w );
}
void Line::convertToSimpleBlock(initializer_list<int> n, bool debug) {
int n1=1;
// First find the existing vertex if non then proceed;
if (n.size() >= 1) {n1 = *(n.begin());}
else { return; }
if (debug) cout << "Converting cell: "<<id << " to block ("<< n1<< ")"<<endl;
vector<int_8 > ind;
ind.assign(n1+1, -1);
ind[0] = node[0];
ind[n1] = node[1];
Vec3 dx, x0,x1;
x0 = Vec3(**getVertex(0));
dx = edge()/double(n1);
// Fill in non-existing Vertices
for (auto i = 0; i < n1+1 ; ++i) {
if (debug) cout << "Processing i = "<< i << " using index "<< ind[i] << endl;
if (ind[i]>=0) {
if (debug)
cout<< "Existing vertex: " << ind[i] << " ("<< *(*(grid->listVertex.begin()+ind[i])) <<")"<< endl;
//(*(grid->listVertex.begin()+ind[i][j]))->reset(4);
continue;
}
grid->addVertex(x0 + double(i)*dx);
ind[i] = grid->listVertex.size()-1;
(*(grid->listVertex.rbegin()))->reset(4);
if (debug)
cout<< "New vertex: " << ind[i] << " ("<< *(*(grid->listVertex.begin()+ind[i])) <<")"<< endl;
// boundary
// (*(grid->listVertex.rbegin()))->setCell(0, (j-1)*n1+i-1+nCell);
}
auto nCell = grid->listCell.size()-1;
for (auto i = 0; i < n1+1; ++i) {
auto v = (*(grid->listVertex.begin()+ind[i]));
int_8 i0 = i-1; i0 = (i0 == 0) ? id : i0+nCell;
int_8 i1 = i; i1 = (i1 == 0) ? id : i1+nCell;
if (i > 0 && i < n1) {
v->setCell({i0, i1});
} else if (i == 0) {
auto v0 = grid->listVertex.begin() + ind[i];
v->setCell({(*v0)->cell[0], i1});
} else if (i == n1) {
auto v0 = grid->listVertex.begin() + ind[i];
v->setCell({i0, (*v0)->cell[1]});
}
}
for (auto i = 0; i < n1; ++i) {
if (i == 0) {
reset({ind[i], ind[i+1]});
} else {
grid->addCell({ind[i], ind[i+1]});
auto x = (*grid->listCell.rbegin())->getCoord();
for (auto k = 0; k < grid->listVar.size(); ++k) {
grid->listVar[k]->set(grid->listCell.size()-1,grid->listVar[k]->get(id)); // oldv[k] + (x-xcold)*oldg[k]);
}
}
}
return;
}
void CTable::setCell(const char* entryc, size_t r, size_t c){
std::string entry=entryc;
setCell(entry,r,c);
}
void Grid::setCol( int r, int c, QWidget* w, int count )
{
for (int i = 0; i < count; i++ )
setCell( r + i, c, w );
}
void CTable::setCell(const TString& entryTS, size_t r, size_t c){
setCell(std::string(entryTS.Data()),r,c);
}
void CPlayer::setships()
{
char input = 'V';
char ok = 'Y';
char save = 'N';
ostringstream outSStream;
CCell location;
for(short j = 1; j < SHIP_SIZE_ARRAYSIZE; j++)
{
system("cls");
printGrid(cout, ZERO);
outSStream.str("");
outSStream << "Player " << m_whichPlayer + ONE << " Enter "
<< shipNames[j] << " orientation";
input = safeChoice(outSStream.str(), 'V', 'H');
if (input == 'V')
m_ships[j].setOrientation(ONE);
else
m_ships[j].setOrientation(ZERO);
cout << "Player " << m_whichPlayer + ONE << " Enter " << shipNames[j]
<< " bow coordinates <row letter><col #>: ";
location.getCoord(cin, m_gridSize);
m_ships[j].setBowLocation(location);
// if ok
if(!isValidLocation(j))
{
cout << "invalid location. Press <enter>" ;
cin.ignore(BUFFER_SIZE, '\n');
cin.get();
j--; // redo
continue;
}
// our code
location = m_ships[j].getCell();
for(int i = 0; i < shipSize[j]; i++)
{
if (input == 'V')
{
setCell(ZERO, location, m_ships[j].getName());
location.increaseRow();
}
else
{
setCell(ZERO, location, m_ships[j].getName());
location.increaseCol();
}
}
system("CLS");
printGrid(cout, ZERO);
ok = safeChoice("Position okay? ", 'Y', 'N');
// choice not ok
if (ok == 'N')
{
location = m_ships[j].getCell();
for(int i = 0; i < shipSize[j]; i++)
{
if (input == 'V')
{
setCell(ZERO, location, CShip::NOSHIP);
location.increaseRow();
}
else
{
setCell(ZERO, location, CShip::NOSHIP);
location.increaseCol();
}
}
j--;
}
} // end for j
save = safeChoice("\nSave starting grid?", 'Y', 'N');
if(save == 'Y')
saveGrid();
}
bool CPlayer::getGrid(string fileName)
{
string line;
ifstream ifs;
CShip ship = CShip::NOSHIP;
short shipCount[SHIP_SIZE_ARRAYSIZE] = {0};
char cell = ' ';
//char fsize = 'S';
char size_of_grid;
short numberOfRows = (toupper(getGridSize()) == 'L') ? LARGEROWS : SMALLROWS;
short numberOfCols = (toupper(getGridSize()) == 'L') ? LARGECOLS : SMALLCOLS;
CCell location;
ifs.open(fileName.c_str());
if(!ifs)
{
cout << "could not open file " << fileName << endl
<< " press <enter> to continue" << endl;
cin.ignore(BUFFER_SIZE, '\n');
return false;
}
size_of_grid = ifs.get();
if (m_gridSize != size_of_grid)
{
cout << "The input file size is not compatible with the " <<
"grid size that you chose from the beginning.";
cout << endl;
ifs.close();
return false;
}
for (int i = 1; i < SHIP_SIZE_ARRAYSIZE; i++)
{
int input_orientation;
int input_row;
int input_col;
ifs >> input_orientation;
ifs >> input_row;
ifs >> input_col;
location = (input_row, input_col);
m_ships[i].setBowLocation(location);
m_ships[i].setOrientation(input_orientation);
for(int j = 0; j < shipSize[i]; i++)
{
if (m_ships[i].getOrientation() == CDirection::VERTICAL)
{
setCell(ZERO, location, m_ships[i].getName());
location.increaseRow();
}
else
{
setCell(ZERO, location, m_ships[i].getName());
location.increaseCol();
}
}
}
system("CLS");
printGrid(cout, ZERO);
char ok = safeChoice("Position okay? ", 'Y', 'N');
// choice not ok
if (ok == 'N')
{
for (int i = 0; i < numberOfRows; i++)
for (int j = 0; j < numberOfCols; j++)
m_gameGrid[ZERO][i][j] = CShip::NOSHIP;
return false;
}
cin.clear();
cin.ignore(BUFFER_SIZE, '\n');
fflush(stdin);
cout << "press <enter> . . ." << endl;
cin.get();
system("CLS");
ifs.close();
return true;
}
bool MatrixModel::importASCII(const QString &fname, const QString &sep,
int ignoredLines, bool stripSpaces,
bool simplifySpaces, const QString &commentString,
int importAs, const QLocale &locale,
int endLineChar, int maxRows) {
int rows = 0;
QString name = MdiSubWindow::parseAsciiFile(fname, commentString, endLineChar,
ignoredLines, maxRows, rows);
if (name.isEmpty())
return false;
QFile f(name);
if (!f.open(QIODevice::ReadOnly))
return false;
QApplication::setOverrideCursor(QCursor(Qt::WaitCursor));
QTextStream t(&f);
QLocale l = d_locale;
if (d_matrix)
l = d_matrix->locale();
bool updateDecimalSeparators = (l != locale);
QString s = t.readLine();
if (simplifySpaces)
s = s.simplified();
else if (stripSpaces)
s = s.trimmed();
QStringList line = s.split(sep);
int cols = line.size();
int startRow = 1, startCol = 0;
switch (importAs) {
case Matrix::Overwrite:
if (d_cols != cols)
setColumnCount(cols);
if (d_rows != rows)
setRowCount(rows);
break;
case Matrix::NewColumns:
startCol = d_cols;
setColumnCount(d_cols + cols);
if (d_rows < rows)
setRowCount(rows);
break;
case Matrix::NewRows:
startRow = d_rows;
if (d_cols < cols)
setColumnCount(cols);
setRowCount(d_rows + rows);
break;
}
for (int j = startCol; j < d_cols; j++) {
int aux = j - startCol;
if (cols > aux) {
if (updateDecimalSeparators)
setCell(0, j, locale.toDouble(line[aux]));
else
setText(0, j, line[aux]);
}
}
qApp->processEvents(QEventLoop::ExcludeUserInputEvents);
for (int i = startRow; i < d_rows; i++) {
s = t.readLine();
if (simplifySpaces)
s = s.simplified();
else if (stripSpaces)
s = s.trimmed();
line = s.split(sep);
int lc = line.size();
if (lc > cols)
setColumnCount(d_cols + lc - cols);
for (int j = startCol; j < d_cols; j++) {
int aux = j - startCol;
if (lc > aux) {
if (updateDecimalSeparators)
setCell(i, j, locale.toDouble(line[aux]));
else
setText(i, j, line[aux]);
}
}
}
f.remove(); // remove temp file
if (d_matrix)
d_matrix->resetView();
QApplication::restoreOverrideCursor();
return true;
}
void Concentration::setCell(long value, int x, int y)
{
setCell(value, linearPos(x, y));
}
void
newLife(
LIFE_T *life,
int32_t size)
{
life->width = size;
life->height = size;
life->alignedWidth = ALIGN_TO_16(life->width);
life->alignedHeight = ALIGN_TO_16(life->height);
life->pitch = ALIGN_TO_16(life->width);
life->buffer = calloc(1, life->pitch * life->alignedHeight);
if (life->buffer == NULL)
{
fprintf(stderr, "life: memory exhausted\n");
exit(EXIT_FAILURE);
}
life->fieldLength = life->width * life->height;
life->field = calloc(1, life->fieldLength);
if (life->field == NULL)
{
fprintf(stderr, "life: memory exhausted\n");
exit(EXIT_FAILURE);
}
life->fieldNext = calloc(1, life->fieldLength);
if (life->fieldNext == NULL)
{
fprintf(stderr, "life: memory exhausted\n");
exit(EXIT_FAILURE);
}
struct timeval tv;
gettimeofday(&tv, NULL);
srand(tv.tv_usec);
int32_t row = 0;
for (row = 0 ; row < life->height ; row++)
{
int32_t col = 0;
for (col = 0 ; col < life->width ; col++)
{
if (rand() > (RAND_MAX / 2))
{
setCell(life, col, row);
}
else
{
life->buffer[col + (row * life->alignedWidth)] = DEAD;
}
}
}
//---------------------------------------------------------------------
VC_IMAGE_TYPE_T type = VC_IMAGE_8BPP;
uint32_t vc_image_ptr;
int result = 0;
life->frontResource =
vc_dispmanx_resource_create(
type,
life->width | (life->pitch << 16),
life->height | (life->alignedHeight << 16),
&vc_image_ptr);
assert(life->frontResource != 0);
life->backResource =
vc_dispmanx_resource_create(
type,
life->width | (life->pitch << 16),
life->height | (life->alignedHeight << 16),
&vc_image_ptr);
assert(life->backResource != 0);
//---------------------------------------------------------------------
vc_dispmanx_rect_set(&(life->bmpRect), 0, 0, life->width, life->height);
result = vc_dispmanx_resource_write_data(life->frontResource,
type,
life->pitch,
life->buffer,
&(life->bmpRect));
assert(result == 0);
//---------------------------------------------------------------------
long cores = sysconf(_SC_NPROCESSORS_ONLN);
if (cores == -1)
{
cores = 1;
}
if (cores > LIFE_MAX_THREADS)
{
life->numberOfThreads = LIFE_MAX_THREADS;
}
else
{
life->numberOfThreads = cores;
}
pthread_barrier_init(&(life->startIterationBarrier),
NULL,
life->numberOfThreads + 1);
pthread_barrier_init(&(life->finishedIterationBarrier),
NULL,
life->numberOfThreads + 1);
//---------------------------------------------------------------------
int32_t heightStep = life->height / life->numberOfThreads;
int32_t heightStart = 0;
int32_t thread;
for (thread = 0 ; thread < life->numberOfThreads ; thread++)
{
life->heightRange[thread].startHeight = heightStart;
life->heightRange[thread].endHeight = heightStart + heightStep;
heightStart += heightStep;
pthread_create(&(life->threads[thread]),
NULL,
workerLife,
life);
}
thread = life->numberOfThreads - 1;
life->heightRange[thread].endHeight = life->height;
//---------------------------------------------------------------------
memcpy(life->field, life->fieldNext, life->fieldLength);
pthread_barrier_wait(&(life->startIterationBarrier));
}
void LifeModel::setCellOff(int row, int col)
{
setCell(row, col, 0);
}