void MainWindow::mouseMoved(int x, int y)
{
// Get number the number of pixel between the last
// und current mouse position
int dx = x - m_mouseX;
int dy = y - m_mouseY;
// Check which button was pressend and apply action
if(m_button == GLUT_LEFT_BUTTON)
{
moveXY(dx, dy);
}
if(m_button == GLUT_RIGHT_BUTTON)
{
moveHead(dx, dy);
}
if(m_button == GLUT_MIDDLE_BUTTON)
{
moveZ(dy);
}
// Transform viewport
m_cam.apply();
// Save new coodinates
m_mouseX = x;
m_mouseY = y;
}
void Controller::returnToOriginalPosition()
{
moveHead(0.0, 0.0);
mLock = LOCK_PATH;
moveBase(mOriginalPosition.pose);
waitForLock();
}
bool AngularMotor::allJointsOff(){
effect.str("");
moveArm(right_side, 0, 0, 0, 0);
moveArm(left_side, 0, 0, 0, 0);
moveLeg(right_side, 0, 0, 0, 0, 0, 0);
moveLeg(left_side, 0, 0, 0, 0, 0, 0);
moveHead(0, 0);
return true;
}
/*******************************************************************************
* Description: moves the snake one step, based on the input direction
*
* Inputs: int direction
*
* Returns: void
******************************************************************************/
void advanceSnake( int direction )
{
if( direction == 4 || direction == -1 )
{ // continue the same direction as we are going
direction = PREV_DIRECTION;
}
else
{
PREV_DIRECTION = direction;
}
/* clear the snake */
int i;
for( i = 0; i < theSnake.length; i++)
{
mvaddch( theSnake.body[i].y,
theSnake.body[i].x,
EMPTY_CHAR );
}
/* move the head to the corresponding location */
struct unit lastTail = theSnake.body[theSnake.length-1];
struct unit tempSnake[MAX_LENGTH];
/* shift the rest of the snake */
for( i = 0; i < theSnake.length; i++)
{
tempSnake[i] = theSnake.body[i];
}
for( i = 1; i < theSnake.length; i++)
{
theSnake.body[i] = tempSnake[i-1];
}
moveHead( direction );
/* draw the new snake. draw it backwards so the head is always on top */
for( i = 1; i < theSnake.length; i++ )
{
mvaddch( theSnake.body[i].y,
theSnake.body[i].x,
TAIL_CHAR );
}
mvaddch( theSnake.body[0].y, theSnake.body[0].x, theSnake.body[0].symbol );
if( gotGoodie )
{ /* append another tail to the snake */
theSnake.length++;
theSnake.body[theSnake.length-1] = lastTail;
mvaddch( lastTail.y, lastTail.x, lastTail.symbol);
placeGoodie(); // place a new goodie
score++;
mvprintw( MAX_ROW-1, 0, "Score: %d", score );
gotGoodie = false;
}
}
/**
* Respond to the user surprised
*/
uint8_t Controller::respond()
{
mBusy = true;
moveHead(HEAD_INIT_X, HEAD_INIT_Z);
setFocusFace(true);
mBusy = false;
respondedSurprised = true;
return nero_msgs::Emotion::SURPRISED;
}
void UserController::choice_movement(std::string room)
{
int task_right = 0;
int task_left = 0;
int task_head = 0;
int task_body = 0;
if (room == "lobby")
{
task_left = 0;
task_right = 1;
task_head = 2;
task_body = 0;
}
else if (room == "kitchen")
{
task_left = 2;
task_right = 0;
task_head = 3;
task_body = 0;
}
else if (room == "living room")
{
task_left = 1;
task_right = 0;
task_head = 4;
task_body = 0;
}
else if (room == "bed room")
{
task_left = 0;
task_right = 2;
task_head = 1;
task_body = 0;
}
else if (room == "finish")
{
task_left = 0;
task_right = 0;
task_head = 0;
task_body = 1;
}
else
{
task_left = 0;
task_right = 0;
task_head = 0;
task_body = 0;
}
moveLeftArm(task_left);
moveRightArm(task_right);
moveHead(task_head);
moveBody(task_body);
}
int CBget(CB_INSTANCE* buffer, CB_BYTE_PTR dst, int size) {
pthread_mutex_lock(&buffer->mutex);
int sizeFetch = 0;
if(buffer->head == buffer->tail) {
pthread_mutex_unlock(&buffer->mutex);
return sizeFetch;
}
if(buffer->head > buffer->tail) {
int sizeA = buffer->end - buffer->head;
sizeA = size < sizeA ? size : sizeA;
memcpy(dst, buffer->head, sizeA);
dst += sizeA;
moveHead(buffer, sizeA);
size -= sizeA;
sizeFetch += sizeA;
if(buffer->head == buffer->tail) {
pthread_mutex_unlock(&buffer->mutex);
return sizeFetch;
}
}
if(size) {
int sizeB = buffer->tail - buffer->head;
sizeB = size < sizeB ? size : sizeB;
memcpy(dst, buffer->head, sizeB);
moveHead(buffer, sizeB);
sizeFetch += sizeB;
}
#ifdef __CB_LOG
printf("0x%08x : GET 0x%08x - 0x%08x\n", buffer->begin, buffer->head, buffer->tail);
#endif
pthread_mutex_unlock(&buffer->mutex);
return sizeFetch;
}
/**
* Moves the base to a given goal
*/
void Controller::moveBase(geometry_msgs::Pose &goal)
{
//Make sure that setMode() for base is unlocked
std_msgs::Bool bool_msg;
bool_msg.data = false;
stopPublisher->publish(bool_msg);
setFocusFace(false);
moveHead(0.0, 0.0);
ROS_INFO("Publishing path goal.");
geometry_msgs::PoseStamped stamped_goal;
stamped_goal.pose = goal;
stamped_goal.header.frame_id = "/map";
stamped_goal.header.stamp = ros::Time::now();
mBaseGoalPublisher.publish(stamped_goal);
}
int moveInfoContainsMove( MoveInfo *theMoveInfo, Move *theMove )
{
Move *aMove;
if( IsListEmpty( &theMoveInfo->mi_Moves ))
return FALSE;
for( aMove = moveHead( &theMoveInfo->mi_Moves );
aMove != moveSucc( moveTail( &theMoveInfo->mi_Moves ));
aMove = moveSucc( aMove ))
{
if(( theMove->mv_SourceStack == aMove->mv_SourceStack )&&
( theMove->mv_DestStack == aMove->mv_DestStack ))
return TRUE;
}
return FALSE;
}
IK_GazeResult::List Gaze::execute(bool move_head, bool move_leye, bool move_reye, bool simulate)
{
if(!m_targetIsSet)
return IK_GazeResult::GAZE_ERROR;
int result_head = 0;
int result_eyes = 0;
if(move_head)
if( !moveHead(simulate) )
result_head = 1;
if(move_leye)
if( !moveEye(m_leye, m_aux_leye, simulate) )
result_eyes = 1;
if(move_reye)
if( !moveEye(m_reye, m_aux_reye, simulate) )
result_eyes = 1;
m_targetIsSet = false;
return (IK_GazeResult::List)(1 + result_eyes + 2*result_head);
}
int main(int argc, char **argv)
{
//So, for some odd reason involving the initialization of static non-copyable data, i can not get GUI to hold it's own RenderWindow
//So i'm going to bite the bullet and just do it here in this class... :P
gui.init();
//Create my BodyState tracker
stateTracker=BodyState();
//Set up some ROS stuff
ros::init(argc, argv, "mirror");
ros::NodeHandle n;
//First my subscribers
ros::Subscriber myoIMU_listener = n.subscribe("/myo/imu",1000, myoIMUCallBack);
ros::Subscriber myoGesture_listener = n.subscribe("/myo/gesture",1000, myoGestureCallBack);
ros::Subscriber myoOnboardGesture_listener = n.subscribe("/myo/onboardGesture",1000, myoOnboardGestureCallBack);
ros::Subscriber left_eye_watcher = n.subscribe("/multisense/left/image_rect/compressed",1000, leftEyeCallBack);
ros::Subscriber right_eye_watcher = n.subscribe("/multisense/right/image_rect/compressed",1000, rightEyeCallBack);
ros::Subscriber joint_listener = n.subscribe("/ihmc_ros/valkyrie/output/joint_states", 1000, jointStateCallBack);
ros::Subscriber transform_listener = n.subscribe("/tf", 1000, TFCallBack);
ros::Subscriber people_listener = n.subscribe("/people", 1000, peopleCallBack);
//Now my publishers
ros::Publisher arm_controller = n.advertise<ihmc_msgs::ArmTrajectoryRosMessage>("/ihmc_ros/valkyrie/control/arm_trajectory", 1000);
ros::Publisher neck_controller = n.advertise<ihmc_msgs::NeckTrajectoryRosMessage>("/ihmc_ros/valkyrie/control/neck_trajectory", 1000);
ros::Publisher pelvis_height_controller = n.advertise<ihmc_msgs::PelvisHeightTrajectoryRosMessage>("/ihmc_ros/valkyrie/control/pelvis_height_trajectory", 1000);
ros::Publisher chest_controller = n.advertise<ihmc_msgs::ChestTrajectoryRosMessage>("/ihmc_ros/valkyrie/control/chest_trajectory", 1000);
ros::Publisher go_home_pub = n.advertise<ihmc_msgs::GoHomeRosMessage>("/ihmc_ros/valkyrie/control/go_home",1000);
//Some SFML stufsf::RenderWindow windowf
sf::RenderWindow window;
if(gui.isOcculusOn){
sf::RenderWindow window(sf::VideoMode(2248, 544), "SFML works!");
sf::CircleShape shape(100.f);
shape.setFillColor(sf::Color::Green);
}
//Now the primary loop
ros::Rate loop_rate(6);
ihmc_msgs::GoHomeRosMessage goHomeMsg;
goHomeMsg.trajectory_time=3;
goHomeMsg.unique_id=14;
long int end, start;
while (ros::ok()){
struct timeval tp;
gettimeofday(&tp, NULL);
long int start = tp.tv_sec * 1000 + tp.tv_usec / 1000;
//std::cout<<tracking<<td::endl;
//Some more SFML stuff
if(GUIwindow.isOpen()){
//TODO:add in some human data gathering and print out human position and robot position data
//Also, add a table for Myo stuff
pollEventsGUI();
updateGUI();
}
//std::cout<<lastLeftEye.height<<" "<<lastLeftEye.width<<" "<<lastLeftEye.encoding<<" "<<lastLeftEye.step<<" "<<lastLeftEye.data.size()<<" "<<1024*544*3<<std::endl;
if(gui.isOcculusOn && window.isOpen() && lastLeftEye.data.size()!=0 && lastRightEye.data.size()!=0){
sf::Event event;
while (window.pollEvent(event))
{
if (event.type == sf::Event::Closed)
window.close();
}
sf::Uint8* pixels = new sf::Uint8[2248 * 544 * 4];
sf::Image image,imageL,imageR;
sf::Uint8* Ldata=new sf::Uint8[(size_t)lastLeftEye.data.size()];
sf::Uint8* Rdata=new sf::Uint8[(size_t)lastRightEye.data.size()];
for(int i=0;i<(size_t)lastLeftEye.data.size();i++){
Ldata[i]=lastLeftEye.data[i];
}
for(int i=0;i<(size_t)lastRightEye.data.size();i++){
Rdata[i]=lastRightEye.data[i];
}
imageL.loadFromMemory(Ldata,(size_t)lastLeftEye.data.size());
imageR.loadFromMemory(Rdata,(size_t)lastRightEye.data.size());
delete Ldata;
delete Rdata;
if(imageL.getSize().x!=imageR.getSize().x || imageL.getSize().y!=imageR.getSize().y)
std::cout<<"imageL:("<<imageL.getSize().x<<","<<imageL.getSize().y<<") imageR:("<<imageR.getSize().x<<","<<imageR.getSize().y<<")"<<std::endl;
sf::Texture texture;
int max_x=imageL.getSize().x;
int max_y=imageL.getSize().y;
for(int y = 0; y <max_y; y++)
{
for(int x = 0; x < max_x; x++)
{
pixels[(y*(2*max_x+200)+x)*4] = imageL.getPixelsPtr()[((max_y-y)*max_x+x)*4]; // R?
pixels[(y*(2*max_x+200)+x)*4 + 1] = imageL.getPixelsPtr()[((max_y-y)*max_x+x)*4+1]; // G?
pixels[(y*(2*max_x+200)+x)*4 + 2] = imageL.getPixelsPtr()[((max_y-y)*max_x+x)*4+2]; // B?
pixels[(y*(2*max_x+200)+x)*4 + 3] = 255; // A?
}
for(int x=1024;x<1224;x++){
pixels[(y*(2*max_x+200)+x)*4] = 0; // R?
pixels[(y*(2*max_x+200)+x)*4 + 1] = 0; // G?
pixels[(y*(2*max_x+200)+x)*4 + 2] = 0; // B?
pixels[(y*(2*max_x+200)+x)*4 + 3] = 255; // A?
}
for(int x = (max_x+200); x < (2*max_x+200); x++)
{
pixels[(y*(2*max_x+200)+x)*4] = imageR.getPixelsPtr()[((max_y-y)*max_x+x-(max_x+200))*4]; // R?
pixels[(y*(2*max_x+200)+x)*4 + 1] = imageR.getPixelsPtr()[((max_y-y)*max_x+x-(max_x+200))*4+1]; // G?
pixels[(y*(2*max_x+200)+x)*4 + 2] = imageR.getPixelsPtr()[((max_y-y)*max_x+x-(max_x+200))*4+2]; // B?
pixels[(y*(2*max_x+200)+x)*4 + 3] = 255; // A?
}
}
window.clear();
image.create(2248, 544, pixels);
texture.create(2248, 544);
texture.update(image);
sf::Sprite sprite;
sprite.setTexture(texture);
window.draw(sprite);
window.display();
delete pixels;
}
if(gui.goHomeCount==12){
goHomeMsg.body_part=0;
goHomeMsg.robot_side=0;
go_home_pub.publish(goHomeMsg);
std::cout<<"just published goHome LEFT_ARM"<<std::endl;
for(int i=0;i<6;i++){
ros::spinOnce();
loop_rate.sleep();
}
goHomeMsg.robot_side=1;
go_home_pub.publish(goHomeMsg);
std::cout<<"just published goHome RIGHT_ARM"<<std::endl;
for(int i=0;i<6;i++){
ros::spinOnce();
loop_rate.sleep();
}
goHomeMsg.body_part=1;
go_home_pub.publish(goHomeMsg);
std::cout<<"just published goHome TORSO"<<std::endl;
for(int i=0;i<6;i++){
ros::spinOnce();
loop_rate.sleep();
}
goHomeMsg.body_part=2;
go_home_pub.publish(goHomeMsg);
std::cout<<"just published goHome PELVIS"<<std::endl;
gui.startGoingHome=false;
gui.goHomeCount--;
ros::spinOnce();
loop_rate.sleep();
continue;
/*
moveSpeedOverRide=3;
arm_controller.publish(moveArm(JRIGHT,stateTracker.getArmHomeAngles()));
arm_controller.publish(moveArm(JLEFT,stateTracker.getArmHomeAngles()));
chest_controller.publish(moveChest(stateTracker.getChestHomeAngles()));
neck_controller.publish(moveHead(stateTracker.getNeckHomeAngles()));
pelvis_height_controller.publish(movePelvisHeight(stateTracker.getPelvisHeightHomeAngles()));
moveSpeedOverRide=-1;*/
}
if(!more || justChanged || (gui.goHomeCount>0 && gui.goHomeCount<12)){
//std::cout<<gui.goHomeCount<<" "<<more<<" "<<justChanged<<std::endl;
if(justChanged && more)
justChanged=false;
/*
ihmc_msgs::GoHomeRosMessage msg;
msg.trajectory_time=3;
msg.unique_id=5;
go_home_pub.publish(msg);
msg.robot_side=1;
go_home_pub.publish(msg);*/
if(gui.goHomeCount>0)
gui.goHomeCount--;
ros::spinOnce();
loop_rate.sleep();
continue;
}
std::vector<double> out;
out.push_back((tp.tv_sec * 1000 + tp.tv_usec / 1000)-end);//oh wow, this is terrible programming practice... dang man
if(end!=0)
gui.record("*: ",out);
//gui.gesture==0 acts as an unlock feature
if(gui.isRightArmOn && gui.gesture==1)
arm_controller.publish(moveArm(JRIGHT,stateTracker.getRightArmAngles()));
else if(gui.isRightArmOn && gui.gesture!=1 && false){
moveSpeedOverRide=3;
arm_controller.publish(moveArm(JRIGHT,stateTracker.getArmHomeAngles()));
moveSpeedOverRide=-1;
moveArm(JRIGHT,stateTracker.getRightArmAngles(),false);
}
if(gui.isLeftArmOn && gui.gesture==1)
arm_controller.publish(moveArm(JLEFT,stateTracker.getLeftArmAngles()));
else if(gui.isLeftArmOn && gui.gesture!=1 && false){
moveSpeedOverRide=3;
arm_controller.publish(moveArm(JLEFT,stateTracker.getArmHomeAngles()));
moveSpeedOverRide=-1;
//moveArm(JLEFT,stateTracker.getLeftArmAngles(),false);
}
if(gui.isChestOn && gui.gesture==1)
chest_controller.publish(moveChest(stateTracker.getChestAngles()));
else if(gui.isChestOn && gui.gesture!=1 && false){
moveSpeedOverRide=3;
chest_controller.publish(moveChest(stateTracker.getChestHomeAngles()));
moveSpeedOverRide=-1;
//moveChest(stateTracker.getChestAngles(),false);
}
if(gui.isHeadOn && gui.gesture==1)
neck_controller.publish(moveHead(stateTracker.getNeckAngles()));
else if(gui.isHeadOn && gui.gesture!=1 && false){
moveSpeedOverRide=3;
neck_controller.publish(moveHead(stateTracker.getNeckHomeAngles()));
moveSpeedOverRide=-1;
//moveHead(stateTracker.getNeckAngles(),false);
}
if(gui.isPelvisOn && gui.gesture==1)
pelvis_height_controller.publish(movePelvisHeight(stateTracker.getStandingHeight()));
else if(gui.isPelvisOn && gui.gesture!=1 && false){
moveSpeedOverRide=3;
pelvis_height_controller.publish(movePelvisHeight(stateTracker.getPelvisHeightHomeAngles()));
moveSpeedOverRide=-1;
//movePelvisHeight(stateTracker.getStandingHeight(),false);
}
ros::spinOnce();
gettimeofday(&tp, NULL);
long int start2 = tp.tv_sec * 1000 + tp.tv_usec / 1000;
loop_rate.sleep();
gettimeofday(&tp, NULL);
end = tp.tv_sec * 1000 + tp.tv_usec / 1000;
std::cout<<end-start2<<std::endl;
}
go_home_pub.publish(goHomeMsg);
goHomeMsg.robot_side=1;
go_home_pub.publish(goHomeMsg);
return 0;
}
/**
* Actions to do when going to sleep
*/
uint8_t Controller::sleep()
{
mWakeUp = false;
moveHead(HEAD_SLEEP_X, HEAD_SLEEP_Z);
return nero_msgs::Emotion::SLEEP;
}
ihmc_msgs::NeckTrajectoryRosMessage moveHead(std::vector<double> angles){return moveHead(angles,true);}
int main(int argc, char* argv[])
{
int boardN = 0;
int ret = 0;
int rhoSize = 256;
int thetaSize = 180;
YARPImageOf<YarpPixelMono> hough_img;
char c;
printf("\n[eyeCalib] Setting up the sensor..");
ret = _grabber.initialize(boardN, _sizeX, _sizeY);
if (ret == YARP_FAIL)
{
printf("[eyeCalib] ERROR in _grabber.initialize(). Quitting.\n");
exit (1);
}
initializeHead();
printf("\n[eyeCalib] Allocating images and filter (%d x %d)...", _sizeX, _sizeY);
for (int i=0; i<N_IMAGES; i++)
_imgBuffer[i].Resize (_sizeX, _sizeY);
_susanImg.Resize (_sizeX, _sizeY);
_susanFlt.resize(_sizeX, _sizeY);
printf("\n[eyeCalib] Allocating Hough Filter (theta %d, rho %d)..", thetaSize, rhoSize);
_houghFlt.resize(thetaSize, rhoSize);
char fileName[255];
FILE *outFile = NULL;
double orientation;
double posVector[4];
double vel;
printf("\n[eyeCalib] Do you want to save results to file ? [Y/n] ");
c = getch();
if (c != 'n')
{
printf("\n[eyeCalib] File name ? ");
scanf("%s", fileName);
printf("[eyeCalib] Append data (Y/n)?");
c = getch();
if (c == 'n')
{
outFile = fopen(fileName,"w");
fprintf(outFile, "velocity;J0;J1;J2;J3;orientation\n");
}
else
{
outFile = fopen(fileName,"a");
}
if (!outFile)
{
printf("[eyeCalib] ERROR opening the file %s. Saving aboorted.\n", fileName);
}
}
printf("\n[eyeCalib] Interactive calibration or Load data form file? [I/l] ");
c = getch();
if ( c == 'l')
{
printf("\n[eyeCalib] File to load? ");
scanf("%s", fileName);
FILE *dataFile = NULL;
dataFile = fopen(fileName,"r");
if (dataFile == NULL)
{
printf("[eyeCalib] ERROR opening the file %s. Quitting.\n", fileName);
releaseSensor();
if (outFile != NULL)
fclose(outFile);
exit(1);
}
bool ret = false;
while (readLine(dataFile, &vel, posVector) == true)
{
printf("\n[eyeCalib] Moving [%.2lf %.2lf %.2lf %.2lf * %.2lf]..", posVector[0], posVector[1], posVector[2], posVector[3], vel);
printf("\n[eyeCalib] Hit any key when Position has been reached..");
moveHead(vel,posVector);
c = getch();
orientation = calibrate();
printf("\n[eyeCalib] Main orientation is %.3frad (%.3fdeg) - variance %.2f", orientation, _rad2deg(orientation));
if (outFile != NULL)
fprintf(outFile, "%lf;%lf;%lf;%lf;%lf;%lf\n", vel, posVector[0], posVector[1], posVector[2], posVector[3], orientation);
}
fclose(dataFile);
}
else
{
do
{
printf("\n[eyeCalib] Avaible Joints:\n\t0 - Left Pan\n\t1 - Left Tilt\n\t2 - Right Pan\n\t3 - Left Tilt");
printf("\n[EyeCalib] Move to? [J0;J1;J2;J3] ");
scanf("%lf;%lf;%lf;%lf", &(posVector[0]), &(posVector[1]), &(posVector[2]), &(posVector[3]));
printf("\n[eyeCalib] Move with velocity? ");
scanf("%lf", &vel);
printf("\n[eyeCalib] Moving [%.2lf %.2lf %.2lf %.2lf * %.2lf]..", posVector[0], posVector[1], posVector[2], posVector[3], vel);
printf("\n[eyeCalib] Hit any key when Position has been reached..");
moveHead(vel, posVector);
c = getch();
orientation = calibrate();
printf("\n[eyeCalib] Main orientation is %.3frad (%.3fdeg) - variance %.2f", orientation, _rad2deg(orientation));
if (outFile != NULL)
fprintf(outFile, "%lf;%lf;%lf;%lf;%lf;%lf\n", vel, posVector[0], posVector[1], posVector[2], posVector[3], orientation);
printf("\n[eyeCalib] Another loop ? [Y/n] ");
c = getch();
} while (c != 'n');
}
if (outFile != NULL)
fclose(outFile);
releaseSensor();
releaseHead();
printf("\n[eyeCalib] Bye.\n");
return 0;
}
/**************************************
* Definition: Strafes the robot until it is considered centered
* between two squares in a corridor
**************************************/
void Robot::center() {
moveHead(RI_HEAD_MIDDLE);
int turnAttempts = 0;
Camera::prevTagState = -1;
while (true) {
bool turn = false;
float centerError = _camera->centerError(COLOR_PINK, &turn);
if (turn) {
if (_centerTurn(centerError)) {
break;
}
turnAttempts++;
}
else {
if (_centerStrafe(centerError)) {
break;
}
}
if (turnAttempts > 2) {
moveHead(RI_HEAD_DOWN);
// make sure we are close to our desired heading, in case we didn't move correctly
updatePose(false);
float thetaHeading;
switch (_heading) {
case DIR_NORTH:
thetaHeading = DEGREE_90;
break;
case DIR_SOUTH:
thetaHeading = DEGREE_270;
break;
case DIR_EAST:
thetaHeading = DEGREE_0;
break;
case DIR_WEST:
thetaHeading = DEGREE_180;
break;
}
float theta = _pose->getTheta();
float thetaError = thetaHeading - theta;
thetaError = Util::normalizeThetaError(thetaError);
if (fabs(thetaError) > DEGREE_45) {
// if we turned beyond 45 degrees from our
// heading, this was a mistake. let's turn
// back just enough so we're 45 degrees from
// our heading.
float thetaGoal = Util::normalizeTheta(theta + (DEGREE_45 + thetaError));
turnTo(thetaGoal, MAX_THETA_ERROR);
}
turnAttempts = 0;
moveHead(RI_HEAD_MIDDLE);
}
}
moveHead(RI_HEAD_DOWN);
_centerTurnPID->flushPID();
_centerStrafePID->flushPID();
}
/**
* Actions to do when waking up
*/
uint8_t Controller::wakeUp()
{
mWakeUp = true;
moveHead(HEAD_INIT_X, HEAD_INIT_Z);
return nero_msgs::Emotion::NEUTRAL;
}
Robot::Robot(std::string address, int id) {
// store the robot's name as an int to be used later
_name = Util::nameFrom(address);
// initialize movement variables
_numCellsTraveled = 0;
_turnDirection = 0;
_movingForward = true;
_speed = 0;
_heading = DIR_NORTH;
setFailLimit(MAX_UPDATE_FAILS);
_robotInterface = new RobotInterface(address, id);
printf("robot interface loaded\n");
// initialize camera
_camera = new Camera(_robotInterface);
// initialize position sensors
_wheelEncoders = new WheelEncoders(this);
_northStar = new NorthStar(this);
// initialize global pose
_pose = new Pose(0.0, 0.0, 0.0);
// bind _pose to the kalman filter
_kalmanFilter = new KalmanFilter(_pose);
_kalmanFilter->setUncertainty(PROC_X_UNCERTAIN,
PROC_Y_UNCERTAIN,
PROC_THETA_UNCERTAIN,
NS_X_UNCERTAIN,
NS_Y_UNCERTAIN,
NS_THETA_UNCERTAIN,
WE_X_UNCERTAIN,
WE_Y_UNCERTAIN,
WE_THETA_UNCERTAIN);
printf("kalman filter initialized\n");
PIDConstants movePIDConstants = {PID_MOVE_KP, PID_MOVE_KI, PID_MOVE_KD};
PIDConstants turnPIDConstants = {PID_TURN_KP, PID_TURN_KI, PID_TURN_KD};
_movePID = new PID(&movePIDConstants, MIN_MOVE_ERROR, MAX_MOVE_ERROR);
_turnPID = new PID(&turnPIDConstants, MIN_TURN_ERROR, MAX_TURN_ERROR);
printf("pid controllers initialized\n");
// Put robot head down for NorthStar use
moveHead(RI_HEAD_DOWN);
printf("collecting initial data\n");
// fill our sensors with data
prefillData();
// base the wheel encoder pose off north star to start,
// since we might start anywhere in the global system)
_wheelEncoders->resetPose(_northStar->getPose());
// now update our pose again so our global pose isn't
// some funky value (since it's based off we and ns)
updatePose(true);
// load the map once we've found our position in the global
// system, so we can know what cell we started at
int startingX;
int startingY;
if (_pose->getX() > 150) {
startingX = 0;
startingY = 2;
}
else {
startingX = 6;
startingY = 2;
}
_map = new Map(_robotInterface, startingX, startingY);
_mapStrategy = new MapStrategy(_map);
printf("map loaded\n");
}
qthread->start(QThread::HighestPriority);
this->portEnum = new QextSerialEnumerator(this);
this->portEnum->setUpNotifications();
QList<QextPortInfo> ports = this->portEnum->getPorts();
//finding avalible ports
foreach (QextPortInfo info, ports) {
ui->portCombo->addItem(info.portName);
}
//connecting travel moves checkbox
connect(ui->showTravelChkBox, SIGNAL(toggled(bool)),ui->glWidget, SLOT(showTravel(bool)));
//disable steppers btn
connect(ui->disableStpBtn, SIGNAL(clicked()), printerObj, SLOT(disableSteppers()), Qt::QueuedConnection);
//connect head move widget
connect(ui->headControlWidget, SIGNAL(clicked(QPoint)), this, SLOT(moveHead(QPoint)));
connect(ui->headControlWidget, SIGNAL(hovered(QPoint)), this, SLOT(updateHeadGoToXY(QPoint)));
ui->printBtn->setDisabled(true);
ui->pauseBtn->setDisabled(true);
ui->axisControlGroup->setDisabled(true);
ui->headControlWidget->hidePoints(true);
ui->temperatureGroupBox->setDisabled(true);
this->calibrateDialog->setDisabled(true);
ui->macroGroup->setDisabled(true);
ui->progressBar->hide();
ui->baudCombo->addItem("1200", BAUD1200);
ui->baudCombo->addItem("2400", BAUD2400);
ui->baudCombo->addItem("4800", BAUD4800);
ui->baudCombo->addItem("9600", BAUD9600);
ui->baudCombo->addItem("19200", BAUD19200);
uint8_t Controller::get(int object)
{
mBusy = true;
float min_y = 0.f;
mLock = LOCK_ARM;
moveArm(MIN_ARM_X_VALUE, MIN_ARM_Z_VALUE);
waitForLock();
if (mPathingEnabled)
{
//Go to the table
updateRobotPosition();
moveHead(0.0, 0.0);
mLock = LOCK_PATH;
moveBase(mGoal);
waitForLock();
ROS_INFO("Reached Goal");
}
//Aim Kinect to the table
setFocusFace(false);
mLock = LOCK_HEAD;
moveHead(VIEW_OBJECTS_ANGLE, 0.0);
waitForLock();
//Start object recognition process
geometry_msgs::PoseStamped objectPose;
double drive_time = 0.0;
uint8_t attempts = 0;
for (attempts = 0; attempts < MAX_GRAB_ATTEMPTS; attempts++)
{
// start depth for object grabbing (takes a second to start up, so we put it here)
setDepthForced(true);
uint8_t i = 0;
for (i = 0; i < 3; i++)
{
mLock = LOCK_HEAD;
switch (i)
{
case 0: moveHead(VIEW_OBJECTS_ANGLE, 0.0); break;
case 1: moveHead(VIEW_OBJECTS_ANGLE, MIN_VIEW_ANGLE); break;
case 2: moveHead(VIEW_OBJECTS_ANGLE, MAX_VIEW_ANGLE); break;
}
waitForLock();
if (findObject(object, objectPose, min_y) && objectPose.pose.position.y != 0.0)
{
// object found with turned head? rotate base
if (i != 0)
{
mLock = LOCK_BASE;
moveHead(VIEW_OBJECTS_ANGLE, 0.0);
switch (i)
{
case 1: rotateBase(MIN_VIEW_ANGLE); break;
case 2: rotateBase(MAX_VIEW_ANGLE); break;
}
waitForLock();
if (findObject(object, objectPose, min_y) == false || objectPose.pose.position.y == 0.0)
{
ROS_ERROR("Failed to find object, quitting script.");
if (mPathingEnabled)
returnToOriginalPosition();
setDepthForced(false);
return nero_msgs::Emotion::SAD;
}
}
break;
}
}
// found an object, now rotate base to face the object directly and
// create enough space between the robot and the table for the arm to move up
double yaw = -atan(objectPose.pose.position.x / objectPose.pose.position.y);
while (fabs(yaw) > TARGET_YAW_THRESHOLD || fabs(TABLE_DISTANCE - min_y) > TABLE_DISTANCE_THRESHOLD)
{
if (fabs(TABLE_DISTANCE - min_y) > TABLE_DISTANCE_THRESHOLD)
{
ROS_INFO("Moving by %lf. Distance: %lf", min_y - TABLE_DISTANCE, min_y);
mLock = LOCK_BASE;
positionBase(min_y - TABLE_DISTANCE);
waitForLock();
}
else
{
ROS_INFO("Rotating by %lf.", yaw);
mLock = LOCK_BASE;
rotateBase(yaw);
waitForLock();
}
if (findObject(object, objectPose, min_y) == false || objectPose.pose.position.y == 0.0)
{
ROS_ERROR("Failed to find object, quitting script.");
if (mPathingEnabled)
returnToOriginalPosition();
return nero_msgs::Emotion::SAD;
}
yaw = -atan(objectPose.pose.position.x / objectPose.pose.position.y);
}
setDepthForced(false); // we are done with object finding
ROS_INFO("yaw: %lf", yaw);
ROS_INFO("distance: %lf", fabs(TABLE_DISTANCE - min_y));
//Move arm to object and grab it
objectPose.pose.position.x = 0.0; // we are straight ahead of the object, so this should be 0.0 (it is most likely already close to 0.0)
mLock = LOCK_ARM;
moveArm(objectPose);
waitForLock();
//Be ready to grab object
setGripper(true);
usleep(1000000);
setGripper(false);
//Move forward to grab the object
double expected_drive_time = (objectPose.pose.position.y - ARM_LENGTH) / GRAB_TARGET_SPEED;
drive_time = positionBaseSpeed(expected_drive_time + EXTRA_GRAB_TIME, GRAB_TARGET_SPEED, true);
if (drive_time >= expected_drive_time + EXTRA_GRAB_TIME)
{
ROS_ERROR("Been driving forward too long!");
// open gripper again
setGripper(true);
expressEmotion(nero_msgs::Emotion::SAD);
positionBaseSpeed(drive_time, -GRAB_TARGET_SPEED);
//Move object to body
mLock = LOCK_ARM;
moveArm(MIN_ARM_X_VALUE, MIN_ARM_Z_VALUE);
waitForLock();
expressEmotion(nero_msgs::Emotion::NEUTRAL);
}
else
break;
}
// no more attempts left, we are sad
if (attempts >= MAX_GRAB_ATTEMPTS)
{
ROS_ERROR("No more grab attempts left.");
if (mPathingEnabled)
returnToOriginalPosition();
return nero_msgs::Emotion::SAD;
}
// little hack to allow the gripper to close
usleep(500000);
//Lift object
mLock = LOCK_ARM;
moveArm(objectPose.pose.position.x, objectPose.pose.position.z + LIFT_OBJECT_DISTANCE);
waitForLock();
//Move away from table
positionBaseSpeed(drive_time, -GRAB_TARGET_SPEED);
//Move object to body
mLock = LOCK_ARM;
moveArm(MIN_ARM_X_VALUE, MIN_ARM_Z_VALUE);
waitForLock();
if (mPathingEnabled)
returnToOriginalPosition();
moveHead(FOCUS_FACE_ANGLE, 0.0);
//Deliver the juice
//mLock = LOCK_ARM;
//moveArm(DELIVER_ARM_X_VALUE, DELIVER_ARM_Z_VALUE);
//waitForLock();
mBusy = false;
return nero_msgs::Emotion::HAPPY;
}
/*
* The main method of this node, which receives a disparity image and computes the selected ROI of the
* object
*/
void StereoSelector::disparityImageCallback(const stereo_msgs::DisparityImage::ConstPtr& disp_image_ptr)
{
//Get last value of the head movement
private_nh_.getParam("/qbo_stereo_selector/move_head", move_head_bool_);
sensor_msgs::Image image = disp_image_ptr->image;
cv_bridge::CvImagePtr cv_ptr;
try
{
cv_ptr = cv_bridge::toCvCopy(image, sensor_msgs::image_encodings::TYPE_32FC1);
}
catch (cv_bridge::Exception& e)
{
ROS_ERROR("Error receiving the disparity image. cv_bridge exception: %s", e.what());
return;
}
cv::Mat disparity_image = cv_ptr->image;
/*
* Initializing image in which each pixel correspond to the distance of that point
*/
cv::Mat point_distances = cv::Mat::ones(disparity_image.size(), CV_32FC1);
//Calculate distances for each point
point_distances = point_distances*disp_image_ptr->f * disp_image_ptr->T;
point_distances = point_distances/disparity_image;
for(int i = 0; i<disparity_image.rows;i++)
{
for(int j = 0; j<disparity_image.cols;j++)
{
if(disparity_image.at<float>(i,j)<=disp_image_ptr->min_disparity || disparity_image.at<float>(i,j)>disp_image_ptr->max_disparity)
{
//If point is irregular, consider it to be very far away
point_distances.at<float>(i,j) = distance_filter_threshold_*10;
}
}
}
/*
* Calculating max distance point
*/
double minVal, maxVal;
cv::Point minPt, maxPt;
cv::minMaxLoc(point_distances, &minVal, &maxVal, &minPt, &maxPt);
/*
* Normalized point distance image where values are from 0-255, in which closer points
* have higher values and further points have lower values
*/
cv::Mat point_distances_normalized = 255-point_distances*255/maxVal;
//Applying filter using the distance filter
for(int i = 0; i<point_distances.rows;i++)
for(int j = 0; j<point_distances.cols;j++)
if(point_distances.at<float>(i,j)<=0 || point_distances.at<float>(i,j)>distance_filter_threshold_)
point_distances_normalized.at<float>(i,j) = 0;
/*
* Distance image representation with 1byte per pixel
*/
cv::Mat distance_image_8bit;
point_distances_normalized.convertTo(distance_image_8bit, CV_8UC1);
//Computing selection
if(object_detected_bool_ == false)
{
ROS_INFO("Searching for object using FIND ROI. Best object mean till now: %lg. Distance threshold: %lg",object_roi_mean_, distance_filter_threshold_);
object_detected_bool_ = findRoi(point_distances_normalized);
}
else
{
ROS_INFO("Selecting object using CAM Shift");
detectCamShift(distance_image_8bit);
}
//If object found, calculate closest point
if(object_detected_bool_)
{
object_mask_ = distance_image_8bit;
cv::minMaxLoc(point_distances(object_roi_), &minVal, &maxVal, &minPt, &maxPt);
object_distance_ = minVal;
object_pos_ = cv::Point(object_roi_.x+object_roi_.width/2 - image_size_.width/2,
object_roi_.y+object_roi_.height/2-image_size_.height/2);
ROS_INFO("OBJECT FOUND -> Position (%d, %d), Distance: %lg", object_pos_.x, object_pos_.y, object_distance_);
//Update undetected_count counter
undetected_count_ = 0;
}
else
undetected_count_++;
if(move_head_bool_)
moveHead();
// cv::imshow("Stereo Selector Image",distance_image_8bit);
// cv::waitKey(10);
}
/**************************************
* Definition: Moves the robot in the specified direction
* the specified number of cells (65x65 area)
*
* Parameters: ints specifying direction and number of cells
**************************************/
void Robot::move(int direction, int numCells) {
_heading = direction;
int cellsTraveled = 0;
while (cellsTraveled < numCells) {
if(_numCellsTraveled != 0) {
// make sure we're facing the right direction first
if (nsThetaReliable()) {
turn(direction);
}
// center ourselves between the walls
center();
// turn once more to fix any odd angling
if (nsThetaReliable()) {
turn(direction);
}
}
// count how many squares we see down the hall
moveHead(RI_HEAD_MIDDLE);
float leftSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_LEFT);
float rightSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_RIGHT);
moveHead(RI_HEAD_DOWN);
if (leftSquareCount > 3.0) {
leftSquareCount = 3.0;
}
if (rightSquareCount > 3.0) {
rightSquareCount = 3.0;
}
// update our pose estimates now, ignoring
// wheel encoders and setting them to be north star's
updatePose(false);
_wheelEncoders->resetPose(_northStar->getPose());
// finally, update our pose one more time so kalman isn't wonky
updatePose(true);
// based on the direction, move in the global coord system
float goalX = _pose->getX();
float goalY = _pose->getY();
float distErrorLimit = MAX_DIST_ERROR;
switch (direction) {
case DIR_NORTH:
goalY += CELL_SIZE;
break;
case DIR_SOUTH:
goalY -= CELL_SIZE;
break;
case DIR_EAST:
goalX += CELL_SIZE;
if (_map->getCurrentCell()->x == 0 ||
_map->getCurrentCell()->x == 1) {
goalX -= 30.0;
}
break;
case DIR_WEST:
goalX -= CELL_SIZE;
if (_map->getCurrentCell()->x == 0 ||
_map->getCurrentCell()->x == 1) {
goalX += 30.0;
}
break;
}
moveTo(goalX, goalY, distErrorLimit);
// make sure we stop once we're there
stop();
moveHead(RI_HEAD_MIDDLE);
float newLeftSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_LEFT);
float newRightSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_RIGHT);
if (newLeftSquareCount > 3.0) {
newLeftSquareCount = 3.0;
}
if (newRightSquareCount > 3.0) {
newRightSquareCount = 3.0;
}
int i = 0;
while ((newLeftSquareCount + 1.0 < leftSquareCount ||
newRightSquareCount + 1.0 < rightSquareCount) &&
i < 5) {
moveBackward(10);
_robotInterface->reset_state();
newLeftSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_LEFT);
newRightSquareCount = _camera->avgSquareCount(COLOR_PINK, IMAGE_RIGHT);
if (newLeftSquareCount + 1.0 < leftSquareCount &&
newRightSquareCount + 1.0 < rightSquareCount) {
i++;
}
i++;
}
moveHead(RI_HEAD_DOWN);
// we made it!
cellsTraveled++;
printf("Made it to cell %d\n", cellsTraveled);
}
}