X-Git-Url: https://rtime.felk.cvut.cz/gitweb/hubacji1/psp.git/blobdiff_plain/1b994dae37d833de22c1c2d049915893fb292382..91541605f9ec44d8ad7432c3d39d8747846d8dd9:/src/psp.cc diff --git a/src/psp.cc b/src/psp.cc index d4471fb..9d8ce21 100644 --- a/src/psp.cc +++ b/src/psp.cc @@ -21,18 +21,11 @@ bool PSPlanner::collide() bool PSPlanner::forward() { - if (this->ps().parallel()) - return false; - double heading = atan2( - this->ps().y2() - this->ps().y1(), - this->ps().x2() - this->ps().x1() - ); - while (heading < 0) heading += 2 * M_PI; - double h = this->gc().h(); - while (h < 0) h += 2 * M_PI; - if (std::abs(heading - h) < M_PI / 4) - return true; +#if FORWARD_PARKING > 0 + return true; +#else return false; +#endif } void PSPlanner::gc_to_4() @@ -96,103 +89,42 @@ void PSPlanner::guess_gc() if (this->ps().right()) dts = - M_PI / 2; if (this->ps().parallel()) { - dts *= 0.99; // precision workaround x += (this->gc().w() / 2 + 0.01) * cos(h + dts); x += (this->gc().dr() + 0.01) * cos(h); y += (this->gc().w() / 2 + 0.01) * sin(h + dts); y += (this->gc().dr() + 0.01) * sin(h); } else { - if (std::abs( - atan2( - this->ps().y2() - this->ps().y1(), - this->ps().x2() - this->ps().x1() - ) - - this->ps().heading() - ) < M_PI / 2) { - // forward parking - this->gc_to_4(); - double bx; - double by; - double cx; - double cy; - if (this->ps().right()) { - bx = this->gc().lfx(); - by = this->gc().lfy(); - cx = this->gc().ccr().x(); - cy = this->gc().ccr().y(); - } else { - bx = this->gc().rfx(); - by = this->gc().rfy(); - cx = this->gc().ccl().x(); - cy = this->gc().ccl().y(); - } - double radi_angl = atan2(by - cy, bx - cx); - radi_angl += dts; - double angl_delta = this->gc().h() - radi_angl; - this->gc().rotate(bx, by, angl_delta); - // TODO there is a bug somewhere :/ - // - // cli returns not exact intersection, therefore the - // distance to x1, y1 of border is shorter. Then, when - // moving, the distance `dist_o` is not sufficient and - // car still collide with parking slot. It shouldn't be - // problem until it collides with obstacle. - // - if (this->ps().right()) { - cx = this->gc().ccr().x(); - cy = this->gc().ccr().y(); - } else { - cx = this->gc().ccl().x(); - cy = this->gc().ccl().y(); - } - auto cli = circle_line_intersection( - cx, cy, this->gc().iradi(), - this->ps().x1(), this->ps().y1(), - this->ps().x2(), this->ps().y2() - ); - double d1 = edist( - this->ps().x1(), this->ps().y1(), - std::get<0>(cli), std::get<1>(cli) - ); - double d2 = edist( - this->ps().x1(), this->ps().y1(), - std::get<2>(cli), std::get<3>(cli) - ); - double dist_o = std::min(d1, d2); - double angl_o = atan2( - this->ps().y4() - this->ps().y3(), - this->ps().x4() - this->ps().x3() - ); - // projection - double angl_d = atan2( - this->ps().y1() - this->ps().y2(), - this->ps().x1() - this->ps().x2() - ); - angl_d -= angl_o; - dist_o *= cos(angl_d); - this->gc().x(this->gc().x() + dist_o * cos(angl_o)); - this->gc().y(this->gc().y() + dist_o * sin(angl_o)); - // --- ENDTODO --- - this->gc().sp(-0.01); - this->gc().st(dts); - return; - } else { - dts = atan2( - this->ps().y2() - this->ps().y1(), - this->ps().x2() - this->ps().x1() - ); - dts *= 1.01; // precision workaround - // backward parking - h = dts + M_PI; - x += -(this->gc().df() + 0.01) * cos(h); - y += -(this->gc().df() + 0.01) * sin(h); - if (this->ps().right()) - dts += M_PI / 2; - else - dts -= M_PI / 2; - x += (this->gc().w() / 2 + 0.01) * cos(dts); - y += (this->gc().w() / 2 + 0.01) * sin(dts); - } +#if FORWARD_PARKING > 0 + // Forward parking + double entry_width = edist( + this->ps().x1(), this->ps().y1(), + this->ps().x4(), this->ps().y4() + ); + x += entry_width / 2 * cos(h); + y += entry_width / 2 * sin(h); + h = atan2( + this->ps().y2() - this->ps().y1(), + this->ps().x2() - this->ps().x1() + ); + while (h < 0) h += 2 * M_PI; + x += 2 * this->gc().dr() * cos(h); + y += 2 * this->gc().dr() * sin(h); +#else + // Backward parking + double entry_width = edist( + this->ps().x1(), this->ps().y1(), + this->ps().x4(), this->ps().y4() + ); + x += entry_width / 2 * cos(h); + y += entry_width / 2 * sin(h); + h = atan2( + this->ps().y1() - this->ps().y2(), + this->ps().x1() - this->ps().x2() + ); + while (h < 0) h += 2 * M_PI; + x += this->gc().df() * cos(h + M_PI); + y += this->gc().df() * sin(h + M_PI); +#endif } while (h > M_PI) h -= 2 * M_PI; @@ -203,6 +135,47 @@ void PSPlanner::guess_gc() this->gc().h(h); } +std::vector PSPlanner::last_maneuver() +{ + std::vector lm; + if (this->ps().parallel()) { + // zig-zag out from the slot + this->cc() = BicycleCar(this->gc()); + this->cc().sp(0.1); + lm.push_back(BicycleCar(this->cc())); + while (!this->left()) { + while (!this->collide() && !this->left()) { + this->cc().next(); + lm.push_back(BicycleCar(this->cc())); + } + if (this->left() && !this->collide()) { + break; + } else { + lm.pop_back(); + this->cc().sp(this->cc().sp() * -1); + this->cc().next(); + this->cc().st(this->cc().st() * -1); + this->c_++; + lm.push_back(BicycleCar(this->cc())); + } + } + if (this->cc().st() < 0) { + this->c_++; + lm.push_back(BicycleCar(this->cc())); + } + } else { + // go 1 m forward + this->cc().sp(0.1); + BicycleCar orig_cc(this->cc()); + for (unsigned int i = 0; i < 10; i++) { + this->cc().next(); + lm.push_back(BicycleCar(this->cc())); + } + this->cc() = BicycleCar(orig_cc); + } + return lm; +} + bool PSPlanner::left() { double lfx = this->cc().lfx(); @@ -256,100 +229,566 @@ std::vector PSPlanner::possible_goals( ) { std::vector pi; + if (this->ps().parallel()) + this->cc().sp(1); + else + this->cc().sp(-1); this->cc().sp(this->cc().sp() * dist); - this->cc().st(this->cc().st() * 1); BicycleCar orig_cc(this->cc()); for (unsigned int i = 0; i < cnt; i++) { this->cc().next(); pi.push_back(BicycleCar(this->cc())); } this->cc() = BicycleCar(orig_cc); + if (this->ps().parallel()) { + this->cc().st(0); + for (unsigned int i = 0; i < cnt; i++) { + this->cc().next(); + pi.push_back(BicycleCar(this->cc())); + } + this->cc() = BicycleCar(orig_cc); + } else { + if (!this->ps().right()) { + this->cc().set_max_steer(); + for (unsigned int i = 0; i < cnt; i++) { + this->cc().next(); + pi.push_back(BicycleCar(this->cc())); + } + } else { + this->cc().set_max_steer(); + this->cc().st(this->cc().st() * -1); + for (unsigned int i = 0; i < cnt; i++) { + this->cc().next(); + pi.push_back(BicycleCar(this->cc())); + } + } + this->cc() = BicycleCar(orig_cc); + } return pi; } +void PSPlanner::shrink_to_perfect_len() +{ + if (!this->ps().parallel()) + return; + double perfect_len = this->gc().perfect_parking_slot_len(); + if (edist( + this->ps().x1(), this->ps().y1(), + this->ps().x4(), this->ps().y4() + ) < perfect_len) + return; + double h = this->ps().heading(); + h -= M_PI; + while (h < 0) h += 2 * M_PI; + double ch = perfect_len * cos(h); + double sh = perfect_len * sin(h); + this->ps().border( + this->ps().x4() + ch, this->ps().y4() + sh, + this->ps().x3() + ch, this->ps().y3() + sh, + this->ps().x3(), this->ps().y3(), + this->ps().x4(), this->ps().y4() + ); +} + // find entry void PSPlanner::fe() { - if (this->ps().parallel()) + this->c_ = 0; + if (this->ps().parallel()) { return this->fe_parallel(); + } else { + this->guess_gc(); + this->cc() = BicycleCar(this->gc()); + //this->cc().set_max_steer(); + //if (this->ps().right()) + // this->cc().st(this->cc().st() * -1); + this->cc().sp(-0.2); + } +} + +double angle_between_closer_point( + double sx, double sy, // common start point + double cx, double cy, // common middle point + double x1, double y1, // first ending point + double x2, double y2 // second ending point +) { + if (edist(sx, sy, x1, y1) < edist(sx, sy, x2, y2)) + return ::angle_between_three_points(sx, sy, cx, cy, x1, y1); else - return this->fe_perpendicular(); + return ::angle_between_three_points(sx, sy, cx, cy, x2, y2); } void PSPlanner::fe_parallel() { - // angle for distance from "entry" corner - double dist_angl = this->ps().heading() + M_PI; - dist_angl += (this->ps().right()) ? - M_PI / 4 : + M_PI / 4; - // set bicycle car `bci` basic dimensions and heading - BicycleCar bci = BicycleCar(this->gc()); + this->shrink_to_perfect_len(); BicycleCar bco = BicycleCar(this->gc()); - bci.h(this->ps().heading()); - // move 0.01 from the "entry" corner - bci.x(this->ps().x4() + 0.01 * cos(dist_angl)); - bci.y(this->ps().y4() + 0.01 * sin(dist_angl)); - // align with parking "top" of slot (move backward) - dist_angl = bci.h() + M_PI; - bci.x(bci.x() + bci.df() * cos(dist_angl)); - bci.y(bci.y() + bci.df() * sin(dist_angl)); - // align with "entry" to pakring slot (move outside) - dist_angl = this->ps().heading(); - dist_angl += (this->ps().right()) ? + M_PI / 2 : - M_PI / 2; - bci.x(bci.x() + bci.w() / 2 * cos(dist_angl)); - bci.y(bci.y() + bci.w() / 2 * sin(dist_angl)); - // set default speed, steer - bci.st(bci.wb() / bci.mtr()); + this->cc() = BicycleCar(); + this->cc().sp(-0.01); + this->cc().set_max_steer(); if (!this->ps().right()) - bci.st(bci.st() * -1); - bci.sp(-0.01); - // BFS - init all starts - // see https://courses.cs.washington.edu/courses/cse326/03su/homework/hw3/bfs.html - double dist_diag = sqrt(pow(bci.w() / 2, 2) + pow(bci.df(), 2)); - if (this->ps().right()) - dist_angl = atan2(bci.y() - bci.rfy(), bci.x() - bci.rfx()); - else - dist_angl = atan2(bci.y() - bci.lfy(), bci.x() - bci.lfx()); - double DIST_ANGL = dist_angl; - std::queue> q; - while ( - ( - this->ps().right() - && dist_angl < DIST_ANGL + 3 * M_PI / 4 + this->cc().st(this->cc().st() * -1); + this->cc().h(this->ps().heading()); + double angl_in_slot = this->ps().heading() - M_PI / 4; + if (!this->ps().right()) + angl_in_slot += M_PI / 2; + this->cc().x( + this->ps().x4() + + this->cc().w()/2 * cos( + this->ps().heading() + + (this->ps().right() ? + M_PI / 2 : - M_PI / 2) ) - || ( - !this->ps().right() - && dist_angl > DIST_ANGL - 3 * M_PI / 4 + + (this->cc().df() + 0.01) * cos( + this->ps().heading() + M_PI ) - ) { - this->cc() = BicycleCar(bci); - if (this->ps().right()) { - this->cc().x(bci.rfx() + dist_diag * cos(dist_angl)); - this->cc().y(bci.rfy() + dist_diag * sin(dist_angl)); - } else { - this->cc().x(bci.lfx() + dist_diag * cos(dist_angl)); - this->cc().y(bci.lfy() + dist_diag * sin(dist_angl)); - } - this->cc().h(this->ps().heading() + dist_angl - DIST_ANGL); - if (!this->collide()) { - q.push(BicycleCar(this->cc())); - } - dist_angl += (this->ps().right()) ? + 0.01 : - 0.01; + ); + this->cc().y( + this->ps().y4() + + this->cc().w()/2 * sin( + this->ps().heading() + + (this->ps().right() ? + M_PI / 2 : - M_PI / 2) + ) + + (this->cc().df() + 0.01) * sin( + this->ps().heading() + M_PI + ) + ); + + std::queue> q; + while (!this->collide()) { + q.push(this->cc()); + this->cc().rotate( + this->ps().x4(), + this->ps().y4() - 0.01, + ((this->ps().right()) ? 0.001 : -0.001) + ); } // BFS - find entry current car `cc` and corresponding goal car `gc` unsigned int iter_cntr = 0; - while (!q.empty() && iter_cntr < 9) { + while (!q.empty() && iter_cntr < 30) { this->cc() = BicycleCar(q.front()); q.pop(); - while ( - !this->collide() - && (std::abs( - this->cc().h() - this->ps().heading() - ) > M_PI / 32) - && (std::abs( - this->cc().h() - this->ps().heading() - ) < M_PI / 2) - ) - this->cc().next(); + if (this->ps().right() && this->cc().sp() < 0) { + double cclx = this->cc().ccl().x(); + double ccly = this->cc().ccl().y(); + double ccl_lr = edist( + cclx, ccly, + this->cc().lrx(), this->cc().lry() + ); + double ccl_rr = edist( + cclx, ccly, + this->cc().rrx(), this->cc().rry() + ); + double ccl_p1 = edist( + cclx, ccly, + this->ps().x1(), this->ps().y1() + ); + if (ccl_rr < ccl_p1) { + // pass parking slot + continue; + } else if (ccl_rr >= ccl_p1 && ccl_lr < ccl_p1) { + // partially out of parking slot + auto cli1 = ::intersect( + cclx, ccly, ccl_p1, + this->cc().lrx(), this->cc().lry(), + this->cc().rrx(), this->cc().rry() + ); + double a1 = ::angle_between_closer_point( + this->ps().x1(), this->ps().y1(), + cclx, ccly, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + cclx, ccly, ccl_rr, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().rrx(), this->cc().rry(), + cclx, ccly, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + if (std::get<0>(cli1) && ( + !std::get<0>(cli2) + || a1 < a2 + )) { + this->cc().rotate(cclx, ccly, -a1); + if (::right_side_of_line( + this->cc().x(), this->cc().y(), + + this->cc().x() + + cos(this->ps().heading()), + this->cc().y() + + sin(this->ps().heading()), + + this->cc().x() + + cos(this->cc().h()), + this->cc().y() + + sin(this->cc().h()) + )) { + continue; + } + } else if (std::get<0>(cli2) && ( + !std::get<0>(cli1) + || a2 < a1 + )) { + this->cc().rotate(cclx, ccly, -a2); + } else { + continue; + } + } else if (ccl_lr >= ccl_p1) { + // in parking slot + auto cli1 = ::intersect( + cclx, ccly, ccl_lr, + this->ps().x1(), this->ps().y1(), + this->ps().x2(), this->ps().y2() + ); + double a1 = angle_between_closer_point( + this->cc().lrx(), this->cc().lry(), + cclx, ccly, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + cclx, ccly, ccl_rr, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().rrx(), this->cc().rry(), + cclx, ccly, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + if (std::get<0>(cli1) && ( + !std::get<0>(cli2) + || a1 < a2 + )) { + this->cc().rotate(cclx, ccly, -a1); + if (::right_side_of_line( + this->cc().x(), this->cc().y(), + + this->cc().x() + + cos(this->ps().heading()), + this->cc().y() + + sin(this->ps().heading()), + + this->cc().x() + + cos(this->cc().h()), + this->cc().y() + + sin(this->cc().h()) + )) { + continue; + } + } else if (std::get<0>(cli2) && ( + !std::get<0>(cli1) + || a2 < a1 + )) { + this->cc().rotate(cclx, ccly, -a2); + } else { + continue; + } + } + } else if (this->ps().right() && this->cc().sp() > 0) { + double ccrx = this->cc().ccr().x(); + double ccry = this->cc().ccr().y(); + double ccr_lf = edist( + ccrx, ccry, + this->cc().lfx(), this->cc().lfy() + ); + double ccr_rf = edist( + ccrx, ccry, + this->cc().rfx(), this->cc().rfy() + ); + { + double af = std::abs( + this->ps().heading() + - this->cc().h() + ); + auto tmp_cc = BicycleCar(this->cc()); + this->cc().rotate(ccrx, ccry, -af); + this->gc() = BicycleCar(this->cc()); + if ( + !this->collide() + && this->parked() + ) { + this->cc().sp(this->cc().sp() * -1); + this->gc() = BicycleCar(this->cc()); + goto successfinish; + } else { + this->cc() = BicycleCar(tmp_cc); + } + } + auto cli1 = ::intersect( + ccrx, ccry, ccr_rf, + this->ps().x3(), this->ps().y3(), + this->ps().x4(), this->ps().y4() + ); + double a1 = angle_between_closer_point( + this->cc().rfx(), this->cc().rfy(), + ccrx, ccry, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + ccrx, ccry, ccr_rf, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().rfx(), this->cc().rfy(), + ccrx, ccry, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + auto cli3 = ::intersect( + ccrx, ccry, ccr_lf, + this->ps().x3(), this->ps().y3(), + this->ps().x4(), this->ps().y4() + ); + double a3 = angle_between_closer_point( + this->cc().lfx(), this->cc().lfy(), + ccrx, ccry, + std::get<1>(cli3), std::get<2>(cli3), + std::get<3>(cli3), std::get<4>(cli3) + ); + if (std::get<0>(cli1) && ( + (!std::get<0>(cli2) && !std::get<0>(cli3)) + || (a1 < a2 && !std::get<0>(cli3)) + || (a1 < a3 && !std::get<0>(cli2)) + || (a1 < a2 && a1 < a3) + )) { + this->cc().rotate(ccrx, ccry, -a1); + } else if (std::get<0>(cli2) && ( + (!std::get<0>(cli1) && !std::get<0>(cli3)) + || (a2 < a1 && !std::get<0>(cli3)) + || (a2 < a3 && !std::get<0>(cli1)) + || (a2 < a1 && a2 < a3) + )) { + this->cc().rotate(ccrx, ccry, -a2); + } else if (std::get<0>(cli3) && ( + (!std::get<0>(cli1) && !std::get<0>(cli2)) + || (a3 < a1 && !std::get<0>(cli2)) + || (a3 < a2 && !std::get<0>(cli1)) + || (a3 < a1 && a3 < a2) + )) { + this->cc().rotate(ccrx, ccry, -a3); + } else { + continue; + } + } else if (!this->ps().right() && this->cc().sp() < 0) { + double ccrx = this->cc().ccr().x(); + double ccry = this->cc().ccr().y(); + double ccr_rr = edist( + ccrx, ccry, + this->cc().rrx(), this->cc().rry() + ); + double ccr_lr = edist( + ccrx, ccry, + this->cc().lrx(), this->cc().lry() + ); + double ccr_p1 = edist( + ccrx, ccry, + this->ps().x1(), this->ps().y1() + ); + if (ccr_lr < ccr_p1) { + // pass parking slot + continue; + } else if (ccr_lr >= ccr_p1 && ccr_rr < ccr_p1) { + // partially out of parking slot + auto cli1 = ::intersect( + ccrx, ccry, ccr_p1, + this->cc().lrx(), this->cc().lry(), + this->cc().rrx(), this->cc().rry() + ); + double a1 = ::angle_between_closer_point( + this->ps().x1(), this->ps().y1(), + ccrx, ccry, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + ccrx, ccry, ccr_lr, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().lrx(), this->cc().lry(), + ccrx, ccry, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + if (std::get<0>(cli1) && ( + !std::get<0>(cli2) + || a1 < a2 + )) { + this->cc().rotate(ccrx, ccry, a1); + if (!::right_side_of_line( + this->cc().x(), this->cc().y(), + + this->cc().x() + + cos(this->ps().heading()), + this->cc().y() + + sin(this->ps().heading()), + + this->cc().x() + + cos(this->cc().h()), + this->cc().y() + + sin(this->cc().h()) + )) { + continue; + } + } else if (std::get<0>(cli2) && ( + !std::get<0>(cli1) + || a2 < a1 + )) { + this->cc().rotate(ccrx, ccry, a2); + } else { + continue; + } + } else if (ccr_rr >= ccr_p1) { + // in parking slot + auto cli1 = ::intersect( + ccrx, ccry, ccr_rr, + this->ps().x1(), this->ps().y1(), + this->ps().x2(), this->ps().y2() + ); + double a1 = angle_between_closer_point( + this->cc().rrx(), this->cc().rry(), + ccrx, ccry, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + ccrx, ccry, ccr_lr, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().lrx(), this->cc().lry(), + ccrx, ccry, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + if (std::get<0>(cli1) && ( + !std::get<0>(cli2) + || a1 < a2 + )) { + this->cc().rotate(ccrx, ccry, a1); + if (!::right_side_of_line( + this->cc().x(), this->cc().y(), + + this->cc().x() + + cos(this->ps().heading()), + this->cc().y() + + sin(this->ps().heading()), + + this->cc().x() + + cos(this->cc().h()), + this->cc().y() + + sin(this->cc().h()) + )) { + continue; + } + } else if (std::get<0>(cli2) && ( + !std::get<0>(cli1) + || a2 < a1 + )) { + this->cc().rotate(ccrx, ccry, a2); + } else { + continue; + } + } + } else if (!this->ps().right() && this->cc().sp() > 0) { + double cclx = this->cc().ccl().x(); + double ccly = this->cc().ccl().y(); + double ccl_rf = edist( + cclx, ccly, + this->cc().rfx(), this->cc().rfy() + ); + double ccl_lf = edist( + cclx, ccly, + this->cc().lfx(), this->cc().lfy() + ); + { + double af = std::abs( + this->ps().heading() + - this->cc().h() + ); + auto tmp_cc = BicycleCar(this->cc()); + this->cc().rotate(cclx, ccly, af); + this->gc() = BicycleCar(this->cc()); + if ( + !this->collide() + && this->parked() + ) { + this->cc().sp(this->cc().sp() * -1); + this->gc() = BicycleCar(this->cc()); + goto successfinish; + } else { + this->cc() = BicycleCar(tmp_cc); + } + } + auto cli1 = ::intersect( + cclx, ccly, ccl_lf, + this->ps().x3(), this->ps().y3(), + this->ps().x4(), this->ps().y4() + ); + double a1 = angle_between_closer_point( + this->cc().lfx(), this->cc().lfy(), + cclx, ccly, + std::get<1>(cli1), std::get<2>(cli1), + std::get<3>(cli1), std::get<4>(cli1) + ); + auto cli2 = ::intersect( + cclx, ccly, ccl_lf, + this->ps().x2(), this->ps().y2(), + this->ps().x3(), this->ps().y3() + ); + double a2 = angle_between_closer_point( + this->cc().lfx(), this->cc().lfy(), + cclx, ccly, + std::get<1>(cli2), std::get<2>(cli2), + std::get<3>(cli2), std::get<4>(cli2) + ); + auto cli3 = ::intersect( + cclx, ccly, ccl_rf, + this->ps().x3(), this->ps().y3(), + this->ps().x4(), this->ps().y4() + ); + double a3 = angle_between_closer_point( + this->cc().rfx(), this->cc().rfy(), + cclx, ccly, + std::get<1>(cli3), std::get<2>(cli3), + std::get<3>(cli3), std::get<4>(cli3) + ); + if (std::get<0>(cli1) && ( + (!std::get<0>(cli2) && !std::get<0>(cli3)) + || (a1 < a2 && !std::get<0>(cli3)) + || (a1 < a3 && !std::get<0>(cli2)) + || (a1 < a2 && a1 < a3) + )) { + this->cc().rotate(cclx, ccly, a1); + } else if (std::get<0>(cli2) && ( + (!std::get<0>(cli1) && !std::get<0>(cli3)) + || (a2 < a1 && !std::get<0>(cli3)) + || (a2 < a3 && !std::get<0>(cli1)) + || (a2 < a1 && a2 < a3) + )) { + this->cc().rotate(cclx, ccly, a2); + } else if (std::get<0>(cli3) && ( + (!std::get<0>(cli1) && !std::get<0>(cli2)) + || (a3 < a1 && !std::get<0>(cli2)) + || (a3 < a2 && !std::get<0>(cli1)) + || (a3 < a1 && a3 < a2) + )) { + this->cc().rotate(cclx, ccly, a3); + } else { + continue; + } + } else { + // TODO left parking slot (both forward, backward) + } this->cc().sp(this->cc().sp() * -1); this->cc().next(); this->gc() = BicycleCar(this->cc()); @@ -387,18 +826,23 @@ void PSPlanner::fe_perpendicular() void PSPlanner::fer() { - if (this->ps().parallel()) + this->c_ = 0; + if (this->ps().parallel()) { + this->guess_gc(); + this->cc() = BicycleCar(this->gc()); + this->cc().set_max_steer(); + if (!this->ps().right()) + this->cc().st(this->cc().st() * -1); + this->cc().sp(0.01); return this->fer_parallel(); - else + } else { return this->fer_perpendicular(); + } } void PSPlanner::fer_parallel() { - this->cc().st(this->cc().wb() / this->cc().mtr()); - if (!this->ps().right()) - this->cc().st(this->cc().st() * -1); - this->cc().sp(0.01); + this->cusps_.clear(); while (!this->left()) { while (!this->collide() && !this->left()) this->cc().next(); @@ -408,8 +852,14 @@ void PSPlanner::fer_parallel() this->cc().sp(this->cc().sp() * -1); this->cc().next(); this->cc().st(this->cc().st() * -1); + this->c_++; + this->cusps_.push_back(this->cc()); } } + if (this->cc().st() < 0) { + this->c_++; + this->cusps_.push_back(this->cc()); + } } void PSPlanner::fer_perpendicular() @@ -478,7 +928,7 @@ void PSPlanner::fer_perpendicular() double delta_3 = delta; if (D < 0) delta_use[2] = false; - if (delta_use[0] && delta_use[1] && delta_use[22]) + if (delta_use[0] && delta_use[1] && delta_use[2]) delta = std::max(delta_1, std::max(delta_2, delta_3)); else if (delta_use[0] && delta_use[1]) delta = std::max(delta_1, delta_2); @@ -503,7 +953,7 @@ void PSPlanner::fer_perpendicular() this->cc().sp(-0.01); else this->cc().sp(0.01); - this->cc().st(this->cc().wb() / this->cc().mtr()); + this->cc().set_max_steer(); if (this->ps().right()) this->cc().st(this->cc().st() * -1); while (!this->left()) {