#include #include #include #include #include #include #include #include #include "lib.h" #include "ringbuf.h" #define PI 3.141593654 using namespace cv; #define SOCKETPATH "/home/flo/uds_socket" const int width = 1280, height = 720; float fixup_range(float a, float low, float upp) { float tot=upp-low; while (a < low) a+=tot; while (a>= upp) a-=tot; return a; } float fixup_angle(float a) { return fixup_range(a,-180,180); } int main(int argc, const char** argv) { DroneConnection drone(SOCKETPATH); navdata_t navdata; float scale_factor = 0.2; float diag = sqrt(1280*1280+720*720); float px_per_deg = diag / 92.; int virtual_canvas_width = 360. * px_per_deg; int virtual_canvas_height = 90. * px_per_deg; int real_canvas_extra_width = sqrt(1280*1280+720*720)*scale_factor/2 + 2; int real_canvas_width = virtual_canvas_width * scale_factor + 2*real_canvas_extra_width; int real_canvas_height = virtual_canvas_height * scale_factor; int total_x = 100, total_y = 00; float total_rot = 0.0; Mat frame, gray, oldgray; Mat screencontent(real_canvas_height,real_canvas_width, CV_32FC3); #define RINGBUF_SIZE 10 ModuloRingbuffer ringbuf_x(RINGBUF_SIZE, -virtual_canvas_width/2, virtual_canvas_width/2); Ringbuffer ringbuf_y(RINGBUF_SIZE); ModuloRingbuffer ringbuf_a(RINGBUF_SIZE, -180,180); ModuloRingbuffer ringbuf_phi(RINGBUF_SIZE, -180,180); ModuloRingbuffer ringbuf_psi(RINGBUF_SIZE, -180,180); ModuloRingbuffer ringbuf_theta(RINGBUF_SIZE, -180,180); for (int i=0; i<160;i++) { drone.get(frame, &navdata); cvtColor(frame, oldgray, COLOR_BGR2GRAY); } while (waitKey(1) != 'x') { drone.get(frame, &navdata); imshow("dingens",frame); cvtColor(frame, gray, COLOR_BGR2GRAY); Mat mat = estimateRigidTransform(gray, oldgray, false); printf("_____ %i\n", mat.type()); float angle; int shift_x, shift_y; if (mat.total() > 0) { angle = atan2(mat.at(0,1), mat.at(0,0)) / PI * 180.; shift_x = mat.at(0,2) - width/2 + (mat.at(0,0)*width/2 + mat.at(0,1)*height/2); shift_y = mat.at(1,2) - height/2 + (mat.at(1,0)*width/2 + mat.at(1,1)*height/2); } else { angle = 0; shift_x = 0; shift_y = 0; printf("no mat!\n"); } total_x += shift_x; total_y += shift_y; total_rot = fixup_angle(total_rot+angle); ringbuf_x.put(total_x); ringbuf_y.put(total_y); ringbuf_a.put(total_rot); ringbuf_phi.put(navdata.phi); ringbuf_psi.put(navdata.psi); ringbuf_theta.put(navdata.theta); double xdiff = fixup_range( ringbuf_x.get() - px_per_deg*ringbuf_psi.get(), -virtual_canvas_width/2, virtual_canvas_width/2); double ydiff = ringbuf_y.get() + px_per_deg*ringbuf_theta.get(); double adiff = fixup_angle(ringbuf_a.get() - (-ringbuf_phi.get())); //if (fabs(xdiff) < px_per_deg) xdiff = 0.0; //if (fabs(ydiff) < px_per_deg) ydiff = 0.0; //if (fabs(adiff) < 2) adiff = 0.0; xdiff*=0.3; ydiff*=0.3; adiff*=0.3; total_x = fixup_range(total_x - xdiff, -virtual_canvas_width/2, virtual_canvas_width/2); total_y = total_y - ydiff; total_rot = fixup_angle(total_rot - adiff); ringbuf_x.add(-xdiff); ringbuf_y.add(-ydiff); ringbuf_a.add(-adiff); printf("sh: %i\t%i\t%f\n", shift_x, shift_y, angle); printf("tot: %i\t%i\t%f\n", total_x, total_y, total_rot); Mat rotmat = getRotationMatrix2D(Point2f(width/2,height/2), total_rot, scale_factor); printf("dingskram %i\n", rotmat.type()); rotmat.at(0,2) += total_x*scale_factor - width/2 + real_canvas_width/2; rotmat.at(1,2) += total_y*scale_factor - height/2 + real_canvas_height/2; warpAffine(frame, screencontent, rotmat, Size(real_canvas_width, real_canvas_height)); printf("%i/%i\n", screencontent.size().width, screencontent.size().height); if (total_x > 0) screencontent.colRange(0, (2*real_canvas_extra_width)) = screencontent.colRange( real_canvas_width - 2*real_canvas_extra_width, real_canvas_width); else screencontent.colRange( real_canvas_width - 2*real_canvas_extra_width, real_canvas_width) = screencontent.colRange(0, (2*real_canvas_extra_width)); imshow("screencontent", screencontent); oldgray = gray.clone(); } return 0; }