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sim-deprecated.cpp
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double sim::getJointMaxForce(int64_t jointHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(jointHandle);
auto _ret = this->_client->call("sim.getJointMaxForce", _args);
return _ret[0].as<double>();
}
void sim::setJointMaxForce(int64_t objectHandle, double forceOrTorque)
{
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(forceOrTorque);
auto _ret = this->_client->call("sim.setJointMaxForce", _args);
}
int64_t sim::createPureShape(int64_t primitiveType, int64_t options, std::vector<double> sizes, double mass, std::optional<std::vector<int64_t>> precision)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(primitiveType);
_args.push_back(options);
_args.push_back(sizes);
_args.push_back(mass);
if(precision)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*precision);
}
else _brk = true;
auto _ret = this->_client->call("sim.createPureShape", _args);
return _ret[0].as<int64_t>();
}
void sim::removeObject(int64_t objectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
auto _ret = this->_client->call("sim.removeObject", _args);
}
std::tuple<std::vector<uint8_t>, std::vector<int64_t>> sim::getVisionSensorDepthBuffer(int64_t sensorHandle, std::optional<std::vector<int64_t>> pos, std::optional<std::vector<int64_t>> size)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(sensorHandle);
if(pos)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*pos);
}
else _brk = true;
if(size)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*size);
}
else _brk = true;
auto _ret = this->_client->call("sim.getVisionSensorDepthBuffer", _args);
return std::make_tuple(_ret[0].as<std::vector<uint8_t>>(), _ret[1].as<std::vector<int64_t>>());
}
std::tuple<std::vector<uint8_t>, std::vector<int64_t>> sim::getVisionSensorCharImage(int64_t sensorHandle, std::optional<std::vector<int64_t>> pos, std::optional<std::vector<int64_t>> size)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(sensorHandle);
if(pos)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*pos);
}
else _brk = true;
if(size)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*size);
}
else _brk = true;
auto _ret = this->_client->call("sim.getVisionSensorCharImage", _args);
return std::make_tuple(_ret[0].as<std::vector<uint8_t>>(), _ret[1].as<std::vector<int64_t>>());
}
void sim::setVisionSensorCharImage(int64_t sensorHandle, std::vector<uint8_t> image)
{
json _args(json_array_arg);
_args.push_back(sensorHandle);
_args.push_back(bin(image));
auto _ret = this->_client->call("sim.setVisionSensorCharImage", _args);
}
std::vector<int64_t> sim::getObjectSelection()
{
bool _brk = false;
json _args(json_array_arg);
auto _ret = this->_client->call("sim.getObjectSelection", _args);
return _ret[0].as<std::vector<int64_t>>();
}
void sim::setObjectSelection(std::vector<double> objectHandles)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandles);
auto _ret = this->_client->call("sim.setObjectSelection", _args);
}
std::vector<double> sim::getObjectPose(int64_t objectHandle, int64_t relativeToObjectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
auto _ret = this->_client->call("sim.getObjectPose", _args);
return _ret[0].as<std::vector<double>>();
}
std::vector<double> sim::getObjectPosition(int64_t objectHandle, int64_t relativeToObjectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
auto _ret = this->_client->call("sim.getObjectPosition", _args);
return _ret[0].as<std::vector<double>>();
}
std::vector<double> sim::getObjectQuaternion(int64_t objectHandle, int64_t relativeToObjectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
auto _ret = this->_client->call("sim.getObjectQuaternion", _args);
return _ret[0].as<std::vector<double>>();
}
std::vector<double> sim::getObjectMatrix(int64_t objectHandle, int64_t relativeToObjectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
auto _ret = this->_client->call("sim.getObjectMatrix", _args);
return _ret[0].as<std::vector<double>>();
}
std::vector<double> sim::getObjectOrientation(int64_t objectHandle, int64_t relativeToObjectHandle)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
auto _ret = this->_client->call("sim.getObjectOrientation", _args);
return _ret[0].as<std::vector<double>>();
}
void sim::setObjectMatrix(int64_t objectHandle, int64_t relativeToObjectHandle, std::vector<double> matrix)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
_args.push_back(matrix);
auto _ret = this->_client->call("sim.setObjectMatrix", _args);
}
void sim::setObjectOrientation(int64_t objectHandle, int64_t relativeToObjectHandle, std::vector<double> eulerAngles)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
_args.push_back(eulerAngles);
auto _ret = this->_client->call("sim.setObjectOrientation", _args);
}
void sim::setObjectPose(int64_t objectHandle, int64_t relativeToObjectHandle, std::vector<double> pose)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
_args.push_back(pose);
auto _ret = this->_client->call("sim.setObjectPose", _args);
}
void sim::setObjectPosition(int64_t objectHandle, int64_t relativeToObjectHandle, std::vector<double> position)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
_args.push_back(position);
auto _ret = this->_client->call("sim.setObjectPosition", _args);
}
void sim::setObjectQuaternion(int64_t objectHandle, int64_t relativeToObjectHandle, std::vector<double> quaternion)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(objectHandle);
_args.push_back(relativeToObjectHandle);
_args.push_back(quaternion);
auto _ret = this->_client->call("sim.setObjectQuaternion", _args);
}
std::vector<std::string> sim::getMatchingPersistentDataTags(std::string pattern)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(pattern);
auto _ret = this->_client->call("sim.getMatchingPersistentDataTags", _args);
return _ret[0].as<std::vector<std::string>>();
}
std::vector<std::string> sim::getPersistentDataTags()
{
bool _brk = false;
json _args(json_array_arg);
auto _ret = this->_client->call("sim.getPersistentDataTags", _args);
return _ret[0].as<std::vector<std::string>>();
}
std::vector<uint8_t> sim::persistentDataRead(std::string dataTag)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(dataTag);
auto _ret = this->_client->call("sim.persistentDataRead", _args);
return _ret[0].as<std::vector<uint8_t>>();
}
void sim::persistentDataWrite(std::string dataTag, std::vector<uint8_t> dataValue, std::optional<int64_t> options)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(dataTag);
_args.push_back(bin(dataValue));
if(options)
{
if(_brk) throw std::runtime_error("no gaps allowed");
else _args.push_back(*options);
}
else _brk = true;
auto _ret = this->_client->call("sim.persistentDataWrite", _args);
}
json sim::waitForSignal(std::string sigName)
{
bool _brk = false;
json _args(json_array_arg);
_args.push_back(sigName);
auto _ret = this->_client->call("sim.waitForSignal", _args);
return _ret[0].as<json>();
}