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| #!/usr/bin/env python3 | |
| """Per-episode metric extractor for the Case 1 (ART) simulation logs. | |
| Reads every episode directory RUN_DIR/episodes/<episode_id>/ written by the lock-step runner (episode_config.json, | |
| summary.json, ticks.csv.gz, state100.csv.gz; column definitions in runner/schemas/log_schema.md) and writes ONE | |
| compact row per episode: | |
| OUTDIR/<batch>/recovery_part<k>.csv.gz fixed_horizon (recovery / TR) episodes | |
| OUTDIR/<batch>/fullpath_part<k>.csv.gz path_completion (full-path) episodes | |
| OUTDIR/<batch>/errors_part<k>.jsonl episodes that could not be extracted | |
| OUTDIR/<batch>/MANIFEST.json inputs, counts, shard SHA256, extractor SHA256 | |
| Python >= 3.8 with numpy only. Nothing here reads physical data. | |
| Streaming / multiprocess / resumable: episodes are processed by a worker pool and written in shards of at most | |
| --shard-size rows; each shard appears atomically (tmp + rename). On a rerun the episode ids already present in | |
| complete shards are skipped; if such an episode's summary.json changed (different SHA256), the run is refused | |
| (outputs of different runner outputs are never mixed). Shards are never rewritten. | |
| Metric definitions. All times are measured from control start c0 (runner semantics, t = step * 1e-3 - c0): | |
| * Primary error: released error_state(0.0) lateral e[1] and heading e[2] of the TRUE COG state on the 100 Hz log | |
| (state100 e_lat, e_head; recomputed here and checked). Tube cell (L, Hd): |e_lat| < L and |e_head| < Hd. | |
| Grid L in {0.05, 0.10, 0.20} m x Hd in {0.05, 0.10, 0.20} rad; primary cell 0.10 / 0.10. | |
| * first entry = t of the first 100 Hz sample with t >= 0 inside the cell. | |
| * sustained residence D in {0.5, 1.0} s = t of the first sample k such that every sample in [t_k, t_k + D] | |
| is inside (closed interval: 51 / 101 consecutive 100 Hz samples); the residence must be observed in the log. | |
| * started_inside = the first sample with t >= 0 is inside. | |
| * exits after first entry within H = number of inside->outside transitions among samples t_entry <= t <= H. | |
| * recovery distance to first entry: along-track progress (projection of the COG displacement on the straight | |
| reference direction) and odometer (sum of 100 Hz COG step lengths), both from the first sample with t >= 0. | |
| * bounded score at H in {15, 25, 40} s: T = entry if entry (+ D for residence variants) <= H and no controller | |
| failure (solver failure, exception, non-finite output) happened at or before entry; T = H otherwise if the log | |
| covers H or ended early by a terminal rule (divergence stop or terminate-on-failure); else censored (empty). | |
| * Variants: the same cells on the 10 Hz published ticks with the tracking error et1, et2 ("trk10") and | |
| the controller's 1 m lookahead error e1, e2 ("la10"); released error_state(1.0) of the true 100 Hz COG | |
| ("la100"); geometric perpendicular distance to the straight line and wrapped yaw error ("geo100", primary | |
| cell only). | |
| * Full paths: run MAE with the same definitions as the physical runs (physical/physical_runs.py: nearest | |
| waypoint, zero lookahead, signed body-frame lateral, wrapped heading) on the pose the controller used at each | |
| published 10 Hz tick (obs_x, obs_y, obs_theta), window from the first published tick to the completion index | |
| of the extended-lap forward tracker (track(window 30) + completion_index, one extra lap for closed paths, | |
| including the Path-3 loop-closure rule and a 100 Hz completion fallback). Evaluation outcome: | |
| completed / end_departure (no offline completion, max tracked index >= N - 10; window to the first sample at | |
| the maximum index) / failed (window = all samples); post_completion_departure = offline completed but the | |
| online runner outcome is not `completed`. | |
| Usage: | |
| python3 extract_metrics.py --out OUTDIR --batch NAME [--workers N] [--shard-size 2000] | |
| [--waypoints-dir DIR ...] [--run-label-root DIR] RUN_DIR [RUN_DIR ...] | |
| python3 extract_metrics.py --selftest (synthetic checks of the metric kernels) | |
| """ | |
| import argparse | |
| import glob | |
| import gzip | |
| import hashlib | |
| import io | |
| import json | |
| import math | |
| import multiprocessing as mp | |
| import os | |
| import platform | |
| import sys | |
| import time | |
| import numpy as np | |
| EXTRACTOR_VERSION = 'tr-c1-extract/1' | |
| DT = 1e-3 | |
| LAT_GRID = (0.05, 0.10, 0.20) | |
| HEAD_GRID = (0.05, 0.10, 0.20) | |
| PRIMARY_CELL = (0.10, 0.10) | |
| RESIDENCE_S = (0.5, 1.0) | |
| HORIZONS = (15.0, 25.0, 40.0) | |
| DIAG_H = 25.0 # horizon for behaviour diagnostics and horizon means (primary H) | |
| STEER_REVERSAL_BAND = 0.05 # deadband for steering reversals (command units) | |
| SAT_EPS = 1e-12 | |
| EPS_T = 1e-9 | |
| CTRL_FAIL = ('controller_solver_failure', 'controller_exception', 'controller_nonfinite_output') | |
| CLOSED_PATHS = {'path_iros_1': True, 'path_iros_2': False, 'lot17_sinsquare': True, 'circ_r2_ccw': True, | |
| 'circ_r2_cw': True, 'circ_r5_ccw': True, 'circ_r5_cw': True, 'straight_line': False} | |
| PATH_KEY = {'path_iros_1': 'P1', 'path_iros_2': 'P2', 'lot17_sinsquare': 'P3'} | |
| SPIN = {'yaw_rate_min': 1.5, 'factor': 2.0, 'r_min': 1.02, 'n_consecutive': 3} # runner metrics.SPIN_CRITERION | |
| DEFAULT_WAYPOINT_DIRS = ['/sbel/Desktop/waypoints_paths', | |
| os.path.join(os.path.dirname(os.path.abspath(__file__)), '..', 'data', 'waypoints')] | |
| def cell_name(L, H): | |
| return f'L{int(round(L * 100)):03d}H{int(round(H * 100)):03d}' | |
| CELLS = [(L, H) for L in LAT_GRID for H in HEAD_GRID] | |
| PCELL = cell_name(*PRIMARY_CELL) | |
| def res_name(D): | |
| return f'sus{int(round(D * 100)):03d}' | |
| # ----------------------------------------------------------------------------------------------- column lists | |
| # episode tags written by runner/batches/generate_lists.py; each becomes a 'tag_<key>' column (any other tag | |
| # stays available in tags_json) | |
| TAG_KEYS = ['batch', 'family', 'condition', 'row', 'rep', 'rf_arm', 'path', 'phase_ms', 'nominal_role', | |
| 'sensitivity', 'repeat', 'placement_index', 'crn_source', 'tuning_family', 'tuning_config_index', | |
| 'reference_name'] | |
| ID_COLUMNS = [ | |
| 'batch', 'run_dir', 'episode_id', 'scenario_id', 'kind', 'controller', 'ctrl_label', 'base_controller', | |
| 'steering_scale', 'nnhd_gain', 'controller_params_json', 'ref_type', 'ref_name', 'path_key', | |
| 'latency_model', 'controller_period_s', 'controller_phase_s', 'compute_delay_s', 'state_delay_s', | |
| 'control_start_s', 'horizon_s', 'init_x', 'init_y', 'init_yaw', 'init_frame', | |
| 'placement_heading', 'placement_x0', 'placement_y0', 'e_m', 'phi_rad', 'e_geom_m', 'phi_geom_rad', | |
| 'steering_bias', 'actuation_delay_s', 'friction', 'noise_std_x', 'noise_std_y', 'noise_std_yaw', 'noise_seed', | |
| 'tube_lat_m', 'tube_head_rad', 'divergence_dist_m', 'divergence_hold_s', 'stop_on_divergence', | |
| 'on_controller_failure', 'osqp_rho_interval', | |
| ] + ['tag_' + k for k in TAG_KEYS] + [ | |
| 'tags_json', 'default_config_sha256', | |
| 'config_hash', 'config_hash_ok', 'code_digest', 'host_fingerprint', 'run_id', 'attempt', | |
| 'summary_sha256', 'ticks_sha256', 'state_sha256', 'files_hash_ok', 'reference_sha256', 'ref_sha_ok', | |
| 'status', 'outcome', 'failure_category', 'failure_step', 'failure_t_ctrl', 'final_step', 'sim_s', | |
| 'log_end_t', 'terminal_stop', 'completion_step', 'summary_divergence_step', | |
| 'n_ticks', 'n_published', 'n_rate_limited', 'n_state_rows', | |
| 'n_tick_ok', 'n_tick_no_state', 'n_tick_controller_dead', 'n_tick_solver_failure', 'n_tick_exception', | |
| 'n_tick_nonfinite', | |
| 'wall_total_s', 'wall_init_s', 'wall_stepping_s', 'wall_controller_s', 'wall_other_s', | |
| 'server_spawn_to_ready_s', 'physics_pure_step_wall_s', | |
| 'chassis_touchdown_step', 'first_command_apply_step', 'cog_z_at_first_command_apply', 'first_cmd_airborne', | |
| ] | |
| DIAG_COLUMNS = [ | |
| 'diag_H', 'e_lat0', 'e_head0', 'first_zero_cross_t', 'overshoot_m', 'overshoot_t', 'n_lat_zero_cross', | |
| 'n_lat_sign_changes_after_entry', 'p2p_lat_last5s', 'max_abs_lat_after_entry', 'max_abs_head_after_entry', | |
| 'lat_at_H', 'head_at_H', 'max_abs_lat_H', 'max_abs_head_H', | |
| 'frac_steer_sat', 'frac_rate_limited', 'n_steer_reversals', 'n_steer_sign_changes_raw', | |
| 'thr_mean', 'thr_sd', 'frac_thr_one', 'frac_thr_zero', 'raw_thr_mean', 'raw_thr_max', 'thr_mean_to_entry', | |
| 'speed_mean_H', 'speed_max_H', 't_speed_09', 'speed_mean_to_entry', 'max_abs_yaw_rate_H', | |
| 'spin_flag', 'spin_first_step', 'spin_n_flagged', 'max_abs_yaw_rate_all', | |
| 'div_flag', 'div_onset_step', 'div_onset_t', 'div_recovered_tube', 'time_beyond_div_dist_s', 'max_dist_min', | |
| ] | |
| def recovery_columns(): | |
| cols = [] | |
| for (L, H) in CELLS: | |
| c = cell_name(L, H) | |
| cols += [f'trk100_{c}_first', f'trk100_{c}_{res_name(0.5)}', f'trk100_{c}_{res_name(1.0)}', | |
| f'trk100_{c}_inside0', f'trk100_{c}_exits_H25', f'trk100_{c}_fracin_H25', | |
| f'trk100_{c}_dprog', f'trk100_{c}_dodo', | |
| f'trk10_{c}_first', f'la10_{c}_first', f'la100_{c}_first'] | |
| for Hh in HORIZONS: | |
| cols += [f'T{int(Hh)}_trk100_{c}_first'] | |
| for Hh in HORIZONS: | |
| for D in RESIDENCE_S: | |
| cols.append(f'T{int(Hh)}_trk100_{PCELL}_{res_name(D)}') | |
| cols += [f'T{int(Hh)}_trk10_{PCELL}_first', f'T{int(Hh)}_la10_{PCELL}_first', | |
| f'T{int(Hh)}_la100_{PCELL}_first', f'T{int(Hh)}_geo100_{PCELL}_first', | |
| f'reason{int(Hh)}_trk100_{PCELL}_first', | |
| f'exits_{PCELL}_H{int(Hh)}', f'fracin_{PCELL}_H{int(Hh)}', | |
| f'hmean_abs_lat_H{int(Hh)}', f'hmean_abs_head_H{int(Hh)}', f'hmean_complete_H{int(Hh)}'] | |
| cols += [f'geo100_{PCELL}_first', f'geo100_{PCELL}_inside0', f'trk100_{PCELL}_final_stay_t', | |
| 'max_abs_lat_all', 'final_e_lat', 'final_e_head'] | |
| cols += DIAG_COLUMNS | |
| cols += ['chk_tube_first', 'chk_tube_tick', 'chk_tube_tick_la', 'chk_tube_100hz_la', 'chk_fracin_all', | |
| 'chk_exits_all', 'chk_final_stay', 'chk_max_abs_lat', 'chk_final_e', 'chk_spin', 'chk_divergence', | |
| 'chk_err_recompute_maxdiff', 'ref_index_at_end'] + [f'ref_index_at_end_H{int(Hh)}' for Hh in HORIZONS] + ['chk_all'] | |
| return cols | |
| FULLPATH_COLUMNS_EXTRA = [ | |
| 'n_waypoints', 'closed_path', 'ref_length_m', 'eval_outcome', 'online_outcome', 'post_completion_departure', | |
| 'completion_from_100hz_fallback', 'completion_index', 'completion_time_s', 'max_tracked_index', | |
| 'eval_end_index', 'eval_samples', 'mae_lat_m', 'mae_head_rad', 'mae_lat_true_m', 'mae_head_true_rad', | |
| 'max_abs_lat_window_m', 'max_abs_lat_100hz_to_end_m', 'sim_s_to_offline_completion', | |
| 'common_window_end_index', 'mae_lat_common_m', 'mae_head_common_rad', | |
| 'online_mae_lat_m', 'online_mae_head_rad', 'online_mae_samples', | |
| 'fp_frac_steer_sat', 'fp_frac_rate_limited', 'fp_n_steer_reversals', 'fp_thr_mean', 'fp_frac_thr_one', | |
| 'fp_frac_thr_zero', 'fp_raw_thr_mean', 'fp_speed_mean', 'fp_speed_max', 'fp_max_abs_yaw_rate', | |
| 'fp_spin_flag', 'fp_max_dist_min', | |
| 'chk_online_mae', 'chk_spin', 'chk_all', | |
| ] | |
| def fullpath_columns(): | |
| return list(FULLPATH_COLUMNS_EXTRA) | |
| # ----------------------------------------------------------------------------------------------- small helpers | |
| def sha256_bytes(b): | |
| return hashlib.sha256(b).hexdigest() | |
| def sha256_file(p): | |
| h = hashlib.sha256() | |
| with open(p, 'rb') as f: | |
| for blk in iter(lambda: f.read(1 << 20), b''): | |
| h.update(blk) | |
| return h.hexdigest() | |
| def read_csv_gz_bytes(raw): | |
| """Parse a runner CSV (gzip bytes) into {column: numpy array of str}. Empty field = ''.""" | |
| text = gzip.decompress(raw).decode() | |
| lines = text.split('\n') | |
| head = lines[0].split(',') | |
| rows = [l.split(',') for l in lines[1:] if l] | |
| if rows and any(len(r) != len(head) for r in rows): | |
| raise ValueError('ragged CSV') | |
| if not rows: | |
| return {k: np.array([], dtype=str) for k in head}, 0 | |
| arr = np.array(rows, dtype=object) | |
| return {k: arr[:, i].astype(str) for i, k in enumerate(head)}, len(rows) | |
| def fcol(d, k): | |
| a = d[k] | |
| if a.size == 0: | |
| return np.zeros(0) | |
| a = np.where(a == '', 'nan', a) | |
| return a.astype(float) | |
| def icol(d, k): | |
| return np.array([int(v) if v != '' else -999999 for v in d[k]], dtype=np.int64) | |
| def wrap(a): | |
| return np.arctan2(np.sin(a), np.cos(a)) | |
| def fnone(v): | |
| return None if v is None else float(v) | |
| def same_opt(a, b, tol=1e-9): | |
| """True if both None or |a - b| <= tol.""" | |
| if a is None or b is None: | |
| return a is None and b is None | |
| return abs(float(a) - float(b)) <= tol | |
| # ----------------------------------------------------------------- released error state (copy of runner metrics.py) | |
| def wrap_released(theta): | |
| th = np.array(theta, dtype=float, copy=True) | |
| for _ in range(64): | |
| lo = th < -np.pi | |
| hi = th > np.pi | |
| if not (lo.any() or hi.any()): | |
| break | |
| th[lo] = th[lo] + 2 * np.pi | |
| th[hi] = th[hi] - 2 * np.pi | |
| return th | |
| def heading_error_released(ref, act): | |
| ref = np.asarray(ref, dtype=float) | |
| act = np.asarray(act, dtype=float) | |
| out = np.empty(np.broadcast(ref, act).shape) | |
| same = ((ref > 0) & (act > 0)) | ((ref <= 0) & (act <= 0)) | |
| c2 = (~same) & (ref <= 0) & (act > 0) | |
| c3 = (~same) & ~c2 | |
| out[same] = (ref - act)[same] | |
| a2 = np.abs(ref - act) < np.abs(2 * np.pi + ref - act) | |
| out[c2 & a2] = (-np.abs(act - ref))[c2 & a2] | |
| out[c2 & ~a2] = np.abs(2 * np.pi + ref - act)[c2 & ~a2] | |
| a3 = np.abs(ref - act) < np.abs(2 * np.pi - ref + act) | |
| out[c3 & a3] = np.abs(act - ref)[c3 & a3] | |
| out[c3 & ~a3] = (-np.abs(2 * np.pi - ref + act))[c3 & ~a3] | |
| return out | |
| def nearest_index(x, y, theta, ref, lookahead, chunk=2048): | |
| x = np.atleast_1d(np.asarray(x, dtype=float)) | |
| y = np.atleast_1d(np.asarray(y, dtype=float)) | |
| th = wrap_released(np.atleast_1d(np.asarray(theta, dtype=float))) | |
| px = x + np.cos(th) * lookahead | |
| py = y + np.sin(th) * lookahead | |
| idx = np.empty(len(x), dtype=np.int64) | |
| for i in range(0, len(x), chunk): | |
| d = (px[i:i + chunk, None] - ref[None, :, 0]) ** 2 + (py[i:i + chunk, None] - ref[None, :, 1]) ** 2 | |
| idx[i:i + chunk] = d.argmin(axis=1) | |
| return idx | |
| def error_state_vec(x, y, theta, v, ref, lookahead): | |
| x = np.atleast_1d(np.asarray(x, dtype=float)) | |
| y = np.atleast_1d(np.asarray(y, dtype=float)) | |
| v = np.atleast_1d(np.asarray(v, dtype=float)) | |
| th = wrap_released(np.atleast_1d(np.asarray(theta, dtype=float))) | |
| idx = nearest_index(x, y, th, ref, lookahead) | |
| r = ref[idx] | |
| err_theta = heading_error_released(r[:, 2], th) | |
| c, s = np.cos(-th), np.sin(-th) | |
| dx, dy = r[:, 0] - x, r[:, 1] - y | |
| e0 = c * dx + (-s) * dy | |
| e1 = s * dx + c * dy | |
| return np.column_stack((e0, e1, err_theta, r[:, 3] - v)), idx | |
| def audit_errors(x, y, yaw, ref, chunk=4096): | |
| """errors() of physical/physical_runs.py with zero lookahead (identical formula), chunked.""" | |
| x, y, yaw = (np.asarray(a, dtype=float) for a in (x, y, yaw)) | |
| idx = np.empty(len(x), dtype=np.int64) | |
| for i in range(0, len(x), chunk): | |
| idx[i:i + chunk] = ((x[i:i + chunk, None] - ref[None, :, 0]) ** 2 + | |
| (y[i:i + chunk, None] - ref[None, :, 1]) ** 2).argmin(axis=1) | |
| dx, dy = ref[idx, 0] - x, ref[idx, 1] - y | |
| lat = -np.sin(yaw) * dx + np.cos(yaw) * dy | |
| head = wrap(ref[idx, 2] - yaw) | |
| return lat, head | |
| # --------------------------------------------- full-path window helpers (forward tracker and completion rule) | |
| def track(xy, ref, closed, window=30): | |
| R = np.vstack([ref[:, :2], ref[:, :2]]) if closed else ref[:, :2] | |
| idx, out = 0, np.zeros(len(xy), int) | |
| for k, p in enumerate(xy): | |
| hi = min(len(R), idx + window + 1) | |
| idx += int(np.argmin(((R[idx:hi] - p) ** 2).sum(1))) | |
| out[k] = idx | |
| return out | |
| def completion_index(xy, tracked, ref): | |
| n = len(ref) | |
| d = ref[-1, :2] - ref[-2, :2] | |
| d = d / np.linalg.norm(d) | |
| ok = (tracked >= n) | ((tracked >= n - 1) & (((xy - ref[-1, :2]) @ d) >= 0)) | |
| return int(np.argmax(ok)) if ok.any() else None | |
| def ref_progress(xy, tracked, ref, closed): | |
| R = np.vstack([ref[:, :2], ref[:, :2]]) if closed else ref[:, :2] | |
| S = np.concatenate([[0], np.cumsum(np.linalg.norm(np.diff(R, axis=0), axis=1))]) | |
| out = np.zeros(len(xy)) | |
| for k, (p, i) in enumerate(zip(xy, tracked)): | |
| best = (np.inf, S[i]) | |
| for j in (i - 1, i): | |
| if j < 0 or j + 1 >= len(R): | |
| continue | |
| a, b = R[j], R[j + 1] | |
| L = np.linalg.norm(b - a) | |
| t = np.clip((p - a) @ (b - a) / L ** 2, 0, 1) | |
| dd = np.linalg.norm(a + t * (b - a) - p) | |
| if dd < best[0]: | |
| best = (dd, S[j] + t * L) | |
| out[k] = best[1] | |
| return np.maximum.accumulate(out) | |
| # ----------------------------------------------------------------------------------------------- references | |
| def find_waypoint_file(name, dirs): | |
| for d in dirs: | |
| p = os.path.join(d, name + '.csv') | |
| if os.path.exists(p): | |
| return p | |
| raise FileNotFoundError(f'waypoint file {name}.csv not found in {dirs}') | |
| def build_reference(spec, wp_dirs): | |
| """Copy of runner art_runner/references.build_reference (array part); returns (array, sha256 of array bytes).""" | |
| kind = spec['type'] | |
| if kind in ('released_csv', 'csv_transformed'): | |
| with open(find_waypoint_file(spec['name'], wp_dirs)) as f: | |
| arr = np.loadtxt(f, delimiter=',') | |
| if kind == 'csv_transformed': | |
| rot = float(spec.get('rotate', 0.0)) | |
| c, s = np.cos(rot), np.sin(rot) | |
| out = arr.copy() | |
| out[:, 0] = c * arr[:, 0] - s * arr[:, 1] + float(spec.get('dx', 0.0)) | |
| out[:, 1] = s * arr[:, 0] + c * arr[:, 1] + float(spec.get('dy', 0.0)) | |
| if rot != 0.0: | |
| out[:, 2] = wrap(arr[:, 2] + rot) | |
| arr = out | |
| elif kind == 'straight': | |
| x0, y0 = float(spec.get('x0', 0.0)), float(spec.get('y0', 0.0)) | |
| h = float(spec.get('heading', 0.0)) | |
| spacing = float(spec.get('spacing', 0.1)) | |
| s0, s1 = float(spec.get('s_start', -10.0)), float(spec.get('s_end', 60.0)) | |
| n = int(round((s1 - s0) / spacing)) + 1 | |
| s = s0 + spacing * np.arange(n) | |
| arr = np.column_stack((x0 + s * np.cos(h), y0 + s * np.sin(h), | |
| np.full(n, float(wrap(h))), np.full(n, float(spec.get('v_ref', 1.0))))) | |
| elif kind == 'array': | |
| arr = np.asarray(spec['points'], dtype=float) | |
| else: | |
| raise ValueError(f'unknown reference type {kind}') | |
| arr = np.asarray(arr, dtype=float) | |
| return arr, sha256_bytes(np.ascontiguousarray(arr).tobytes()) | |
| # ----------------------------------------------------------------------------------------------- metric kernels | |
| def first_index(mask): | |
| k = np.flatnonzero(mask) | |
| return int(k[0]) if len(k) else None | |
| def first_sustained_index(inside, n_req): | |
| """First k with inside[k:k+n_req] all True (n_req consecutive samples), else None.""" | |
| if n_req <= 1: | |
| return first_index(inside) | |
| if len(inside) < n_req: | |
| return None | |
| c = np.convolve(inside.astype(np.int64), np.ones(n_req, dtype=np.int64), 'valid') | |
| return first_index(c >= n_req) | |
| def residence_samples(D, dt_log=0.01): | |
| """Closed-interval residence [t_k, t_k + D] at the 100 Hz log: D / dt + 1 samples.""" | |
| return int(round(D / dt_log)) + 1 | |
| def bounded_score(entry, H, fail_t, log_end_t, terminal, dur=0.0): | |
| """Bounded settling-time score. Returns (value or None if censored, reason). | |
| A controller failure at or before entry (and before H) scores H: after a failure the runner holds the last | |
| command (released ChROSDriverInputsHandler behaviour), so a later entry is not credited to the controller. | |
| Divergence alone does not score H ('diverged, then recovered' scores the first entry before H).""" | |
| if fail_t is not None and fail_t <= H + EPS_T and (entry is None or fail_t <= entry + EPS_T): | |
| return float(H), 'controller_failure_before_entry' | |
| if entry is not None and entry + dur <= H + EPS_T: | |
| return float(entry), 'success' | |
| if log_end_t + EPS_T >= H: | |
| return float(H), 'no_entry' | |
| if terminal: | |
| return float(H), 'terminal_stop' | |
| return None, 'censored' | |
| def spin_events(yaw_rate, speed, yaw_rate_min=1.5, factor=2.0, r_min=1.02, n_consecutive=3): | |
| """Copy of runner metrics.spin_events.""" | |
| yr = np.abs(np.asarray(yaw_rate, dtype=float)) | |
| sp = np.asarray(speed, dtype=float) | |
| if len(yr) == 0: | |
| return None, 0, None | |
| flag = (yr > yaw_rate_min) & (yr > factor * sp / r_min) | |
| k0 = None | |
| if len(flag) >= n_consecutive: | |
| run = np.convolve(flag.astype(int), np.ones(n_consecutive, dtype=int), 'valid') >= n_consecutive | |
| k = np.flatnonzero(run) | |
| k0 = int(k[0]) if len(k) else None | |
| return k0, int(flag.sum()), float(yr.max()) | |
| def divergence(steps, dist_min, dist_m, hold_s): | |
| """Runner rule (episode.py): dist_min > dist_m continuously for >= hold_s (100 Hz log). Returns onset step of | |
| the first qualifying excursion (None), total time beyond dist_m (s), max dist_min.""" | |
| hold = int(round(hold_s / DT)) | |
| out = dist_min > dist_m | |
| onset, since = None, None | |
| for s, o in zip(steps, out): | |
| if o: | |
| since = s if since is None else since | |
| if s - since >= hold and onset is None: | |
| onset = since | |
| else: | |
| since = None | |
| return onset, float(out.sum() * 0.01), float(dist_min.max()) if len(dist_min) else None | |
| def sign_changes(x, band=0.0): | |
| """Number of sign changes of x, ignoring samples with |x| <= band (deadband) and exact zeros.""" | |
| x = np.asarray(x, dtype=float) | |
| s = np.sign(x[np.abs(x) > band]) | |
| if len(s) < 2: | |
| return 0 | |
| return int(np.sum(s[1:] != s[:-1])) | |
| # ----------------------------------------------------------------------------------------------- per-episode | |
| def label_from_controller(controller, params): | |
| if controller in ('mpc', 'nnmpc', 'pid', 'nnhd'): | |
| return controller | |
| if controller == 'plugin:wrapped_released': | |
| b = params.get('base') | |
| k = params.get('steering_scale', 1.0) | |
| lab = b if k == 1.0 else f'{b}x{int(round(float(k) * 100)):03d}' | |
| if params.get('shared_speed'): | |
| lab += '_shspd' | |
| return lab | |
| return controller.replace('plugin:', '') | |
| def episode_identity(cfg, summ, batch, run_dir): | |
| tags = cfg.get('tags') or {} | |
| params = cfg.get('controller_params') or {} | |
| lat = cfg['latency'] | |
| pert = cfg.get('perturbation') or {} | |
| noise = pert.get('obs_noise') or {} | |
| term = cfg['termination'] | |
| ref = cfg['reference'] | |
| pl = tags.get('placement') or {} | |
| controller = cfg['controller'] | |
| base = params.get('base') if controller == 'plugin:wrapped_released' else controller | |
| scale = float(params.get('steering_scale', 1.0)) if controller == 'plugin:wrapped_released' else 1.0 | |
| nnhd_gain = scale if base == 'nnhd' else None | |
| prov = summ.get('provenance') or {} | |
| fail = summ.get('failure') or {} | |
| c0 = float(cfg.get('control_start_s', 0.0)) | |
| c0_steps = int(round(c0 * 1000)) | |
| # geometric (e, phi) of the chassis start in the reference frame (straight references) | |
| e_geom = phi_geom = None | |
| if ref['type'] == 'straight': | |
| h = float(ref.get('heading', 0.0)) | |
| dx = cfg['initial_pose']['x'] - float(ref.get('x0', 0.0)) | |
| dy = cfg['initial_pose']['y'] - float(ref.get('y0', 0.0)) | |
| e_geom = -math.sin(h) * dx + math.cos(h) * dy | |
| phi_geom = float(wrap(np.array(cfg['initial_pose']['yaw'] - h))) | |
| fail_step = fail.get('step') if fail.get('category') in CTRL_FAIL else None | |
| row = { | |
| 'batch': batch, 'run_dir': run_dir, 'episode_id': cfg['episode_id'], 'scenario_id': cfg.get('scenario_id'), | |
| 'kind': 'recovery' if term['type'] == 'fixed_horizon' else 'fullpath', | |
| 'controller': controller, 'ctrl_label': tags.get('ctrl_label') or label_from_controller(controller, params), | |
| 'base_controller': base, 'steering_scale': scale, 'nnhd_gain': nnhd_gain, | |
| 'controller_params_json': json.dumps(params, sort_keys=True, separators=(',', ':')), | |
| 'ref_type': ref['type'], 'ref_name': ref.get('name', ref['type']), | |
| 'path_key': PATH_KEY.get(ref.get('name'), ref.get('name', ref['type'])), | |
| 'latency_model': lat['model'], 'controller_period_s': lat.get('controller_period_s'), | |
| 'controller_phase_s': lat.get('controller_phase_s'), 'compute_delay_s': lat.get('compute_delay_s'), | |
| 'state_delay_s': lat.get('state_delay_s'), 'control_start_s': c0, 'horizon_s': cfg['horizon_s'], | |
| 'init_x': cfg['initial_pose']['x'], 'init_y': cfg['initial_pose']['y'], 'init_yaw': cfg['initial_pose']['yaw'], | |
| 'init_frame': cfg['initial_pose'].get('frame'), | |
| 'placement_heading': pl.get('heading'), 'placement_x0': pl.get('x0'), 'placement_y0': pl.get('y0'), | |
| 'e_m': tags.get('e_m'), 'phi_rad': tags.get('phi_rad'), 'e_geom_m': e_geom, 'phi_geom_rad': phi_geom, | |
| 'steering_bias': pert.get('steering_bias'), 'actuation_delay_s': pert.get('actuation_delay_s'), | |
| 'friction': pert.get('friction'), 'noise_std_x': noise.get('std_x'), 'noise_std_y': noise.get('std_y'), | |
| 'noise_std_yaw': noise.get('std_yaw'), 'noise_seed': noise.get('seed'), | |
| 'tube_lat_m': term.get('tube_lat_m'), 'tube_head_rad': term.get('tube_head_rad'), | |
| 'divergence_dist_m': term.get('divergence_dist_m'), 'divergence_hold_s': term.get('divergence_hold_s'), | |
| 'stop_on_divergence': term.get('stop_on_divergence'), 'on_controller_failure': cfg.get('on_controller_failure'), | |
| 'osqp_rho_interval': cfg.get('mpc_osqp_adaptive_rho_interval'), | |
| 'tags_json': json.dumps(tags, sort_keys=True, separators=(',', ':')), | |
| 'default_config_sha256': tags.get('default_config_sha256'), | |
| 'config_hash': summ.get('config_hash'), | |
| 'code_digest': prov.get('code_digest'), 'host_fingerprint': prov.get('host_fingerprint'), | |
| 'run_id': prov.get('run_id', summ.get('run_id')), | |
| 'attempt': prov.get('attempt'), 'reference_sha256': summ.get('reference_sha256'), | |
| 'status': summ.get('status'), 'outcome': summ.get('outcome'), | |
| 'failure_category': fail.get('category'), 'failure_step': fail_step, | |
| 'failure_t_ctrl': None if fail_step is None else fail_step * DT - c0_steps * DT, | |
| 'final_step': summ.get('final_step'), 'sim_s': summ.get('sim_s'), | |
| 'completion_step': summ.get('completion_step'), 'summary_divergence_step': summ.get('divergence_step'), | |
| 'n_ticks': summ.get('n_ticks'), 'n_published': summ.get('n_published'), | |
| 'n_rate_limited': summ.get('n_rate_limited'), 'n_state_rows': summ.get('n_state_rows'), | |
| 'server_spawn_to_ready_s': summ.get('server_spawn_to_ready_s'), | |
| 'physics_pure_step_wall_s': summ.get('physics_pure_step_wall_s'), | |
| 'chassis_touchdown_step': summ.get('chassis_touchdown_step'), | |
| 'first_command_apply_step': summ.get('first_command_apply_step'), | |
| 'cog_z_at_first_command_apply': summ.get('cog_z_at_first_command_apply'), | |
| } | |
| for k in TAG_KEYS: | |
| v = tags.get(k) | |
| row['tag_' + k] = json.dumps(v, sort_keys=True) if isinstance(v, (dict, list)) else v | |
| w = summ.get('wall') or {} | |
| for k in ('total_s', 'init_s', 'stepping_s', 'controller_s', 'other_s'): | |
| row['wall_' + k] = w.get(k) | |
| if row['chassis_touchdown_step'] is not None and row['first_command_apply_step'] is not None: | |
| row['first_cmd_airborne'] = int(row['first_command_apply_step'] < row['chassis_touchdown_step']) | |
| # canonical config hash (runner config.config_hash) | |
| blob = json.dumps(cfg, sort_keys=True, separators=(',', ':'), allow_nan=False) | |
| row['config_hash_ok'] = int(hashlib.sha256(blob.encode()).hexdigest() == summ.get('config_hash')) | |
| return row, c0_steps | |
| def tick_status_counts(tk): | |
| st = tk['status'] if 'status' in tk else np.array([], dtype=str) | |
| return {'n_tick_ok': int(np.sum(st == 'ok')), 'n_tick_no_state': int(np.sum(st == 'no_state')), | |
| 'n_tick_controller_dead': int(np.sum(st == 'controller_dead')), | |
| 'n_tick_solver_failure': int(np.sum(st == 'controller_solver_failure')), | |
| 'n_tick_exception': int(np.sum(st == 'controller_exception')), | |
| 'n_tick_nonfinite': int(np.sum(st == 'controller_nonfinite_output'))} | |
| def recovery_metrics(cfg, summ, row, c0_steps, st, tk, ref): | |
| out = {} | |
| steps = icol(st, 'step') | |
| t_all = steps * DT - c0_steps * DT # identical arithmetic to episode.py (t = step*DT - c0*DT) | |
| after = t_all >= 0 | |
| t = t_all[after] | |
| x, y, yaw, speed = (fcol(st, k) for k in ('x', 'y', 'yaw', 'speed')) | |
| yaw_rate = fcol(st, 'yaw_rate') | |
| lat_all, head_all = fcol(st, 'e_lat'), fcol(st, 'e_head') | |
| lat, head = lat_all[after], head_all[after] | |
| log_end_t = float(t[-1]) if len(t) else 0.0 | |
| out['log_end_t'] = log_end_t | |
| N_h = int(round(float(cfg['horizon_s']) * 1000)) | |
| final_step = summ.get('final_step') or (int(steps[-1]) if len(steps) else 0) | |
| stopped_early = final_step < N_h | |
| terminal = bool(stopped_early and (summ.get('outcome') == 'diverged' or | |
| (summ.get('outcome') in CTRL_FAIL and cfg.get('on_controller_failure') == 'terminate'))) | |
| out['terminal_stop'] = int(terminal) | |
| fail_t = row['failure_t_ctrl'] | |
| # recompute the zero-lookahead error from the logged true state (check of state100 e_lat / e_head) | |
| E0, _ = error_state_vec(x, y, yaw, speed, ref, 0.0) | |
| out['chk_err_recompute_maxdiff'] = float(max(np.max(np.abs(E0[:, 1] - lat_all)), np.max(np.abs(E0[:, 2] - head_all)))) if len(x) else 0.0 | |
| EL, _ = error_state_vec(x[after], y[after], yaw[after], speed[after], ref, 1.0) | |
| la_lat, la_head = EL[:, 1], EL[:, 2] | |
| # geometric variant on the straight line | |
| rs = cfg['reference'] | |
| h = float(rs.get('heading', 0.0)) if rs['type'] == 'straight' else None | |
| if h is not None: | |
| ux, uy = math.cos(h), math.sin(h) | |
| px, py = x[after] - float(rs.get('x0', 0.0)), y[after] - float(rs.get('y0', 0.0)) | |
| g_lat = -uy * px + ux * py | |
| g_head = wrap(yaw[after] - h) | |
| s_along = ux * px + uy * py | |
| else: | |
| g_lat = g_head = None | |
| s_along = fcol(st, 'arc_s')[after] | |
| xa, ya = x[after], y[after] | |
| odo = np.concatenate([[0.0], np.cumsum(np.hypot(np.diff(xa), np.diff(ya)))]) if len(xa) else np.zeros(0) | |
| # ticks (published) | |
| pubm = tk['published'] == '1' if len(tk.get('published', [])) else np.zeros(0, bool) | |
| tt = fcol(tk, 't_ctrl')[pubm] if pubm.any() else np.zeros(0) | |
| et1 = fcol(tk, 'et1')[pubm] if pubm.any() else np.zeros(0) | |
| et2 = fcol(tk, 'et2')[pubm] if pubm.any() else np.zeros(0) | |
| e1 = fcol(tk, 'e1')[pubm] if pubm.any() else np.zeros(0) | |
| e2 = fcol(tk, 'e2')[pubm] if pubm.any() else np.zeros(0) | |
| def entry_t(tv, a, b, L, Hd): | |
| k = first_index((np.abs(a) < L) & (np.abs(b) < Hd)) | |
| return (float(tv[k]), k) if k is not None else (None, None) | |
| within = {Hh: t <= Hh + EPS_T for Hh in HORIZONS} | |
| prim = {} | |
| for (L, Hd) in CELLS: | |
| c = cell_name(L, Hd) | |
| inside = (np.abs(lat) < L) & (np.abs(head) < Hd) | |
| k = first_index(inside) | |
| te = float(t[k]) if k is not None else None | |
| out[f'trk100_{c}_first'] = te | |
| out[f'trk100_{c}_inside0'] = int(bool(inside[0])) if len(inside) else None | |
| for D in RESIDENCE_S: | |
| ks = first_sustained_index(inside, residence_samples(D)) | |
| out[f'trk100_{c}_{res_name(D)}'] = float(t[ks]) if ks is not None else None | |
| if k is not None: | |
| w = within[25.0] | |
| seg = inside[k:][w[k:]] | |
| out[f'trk100_{c}_exits_H25'] = int(np.sum(np.diff(seg.astype(int)) == -1)) if len(seg) else None | |
| out[f'trk100_{c}_fracin_H25'] = float(seg.mean()) if len(seg) else None | |
| out[f'trk100_{c}_dprog'] = float(s_along[k] - s_along[0]) | |
| out[f'trk100_{c}_dodo'] = float(odo[k]) | |
| else: | |
| for kk in ('exits_H25', 'fracin_H25', 'dprog', 'dodo'): | |
| out[f'trk100_{c}_{kk}'] = None | |
| out[f'trk10_{c}_first'] = entry_t(tt, et1, et2, L, Hd)[0] | |
| out[f'la10_{c}_first'] = entry_t(tt, e1, e2, L, Hd)[0] | |
| out[f'la100_{c}_first'] = entry_t(t, la_lat, la_head, L, Hd)[0] | |
| for Hh in HORIZONS: | |
| out[f'T{int(Hh)}_trk100_{c}_first'] = bounded_score(te, Hh, fail_t, log_end_t, terminal)[0] | |
| if (L, Hd) == PRIMARY_CELL: | |
| prim = {'inside': inside, 'k': k, 'te': te} | |
| pc = PCELL | |
| Lp, Hp = PRIMARY_CELL | |
| if g_lat is not None: | |
| gin = (np.abs(g_lat) < Lp) & (np.abs(g_head) < Hp) | |
| kg = first_index(gin) | |
| out[f'geo100_{pc}_first'] = float(t[kg]) if kg is not None else None | |
| out[f'geo100_{pc}_inside0'] = int(bool(gin[0])) if len(gin) else None | |
| else: | |
| out[f'geo100_{pc}_first'] = out[f'geo100_{pc}_inside0'] = None | |
| for Hh in HORIZONS: | |
| hh = int(Hh) | |
| for D in RESIDENCE_S: | |
| out[f'T{hh}_trk100_{pc}_{res_name(D)}'] = bounded_score(out[f'trk100_{pc}_{res_name(D)}'], Hh, fail_t, | |
| log_end_t, terminal, dur=D)[0] | |
| for dfn in ('trk10', 'la10', 'la100', 'geo100'): | |
| out[f'T{hh}_{dfn}_{pc}_first'] = bounded_score(out[f'{dfn}_{pc}_first'], Hh, fail_t, log_end_t, terminal)[0] | |
| out[f'reason{hh}_trk100_{pc}_first'] = bounded_score(prim['te'], Hh, fail_t, log_end_t, terminal)[1] | |
| w = within[Hh] | |
| k = prim['k'] | |
| if k is not None: | |
| seg = prim['inside'][k:][w[k:]] | |
| out[f'exits_{pc}_H{hh}'] = int(np.sum(np.diff(seg.astype(int)) == -1)) if len(seg) else None | |
| out[f'fracin_{pc}_H{hh}'] = float(seg.mean()) if len(seg) else None | |
| else: | |
| out[f'exits_{pc}_H{hh}'] = out[f'fracin_{pc}_H{hh}'] = None | |
| out[f'hmean_abs_lat_H{hh}'] = float(np.abs(lat[w]).mean()) if w.any() else None | |
| out[f'hmean_abs_head_H{hh}'] = float(np.abs(head[w]).mean()) if w.any() else None | |
| out[f'hmean_complete_H{hh}'] = int(log_end_t + EPS_T >= Hh) | |
| # final stay (summary stay_in_tube_time_100hz_s, full log) | |
| ins = prim['inside'] | |
| if prim['k'] is not None and ins[-1]: | |
| outside = np.flatnonzero(~ins) | |
| out[f'trk100_{pc}_final_stay_t'] = float(t[outside[-1] + 1]) if len(outside) else float(t[0]) | |
| else: | |
| out[f'trk100_{pc}_final_stay_t'] = None | |
| out['max_abs_lat_all'] = float(np.abs(lat_all).max()) if len(lat_all) else None | |
| out['final_e_lat'] = float(lat_all[-1]) if len(lat_all) else None | |
| out['final_e_head'] = float(head_all[-1]) if len(head_all) else None | |
| # ------------------------------------------------------------- behaviour diagnostics, within DIAG_H | |
| wH = within[DIAG_H] | |
| out['diag_H'] = DIAG_H | |
| latH, headH, tH = lat[wH], head[wH], t[wH] | |
| out['e_lat0'] = float(lat[0]) if len(lat) else None | |
| out['e_head0'] = float(head[0]) if len(head) else None | |
| s0 = np.sign(lat[0]) if len(lat) else 0.0 | |
| kz = first_index(latH * s0 <= 0) if s0 != 0 else None | |
| if kz is not None: | |
| seg = -s0 * latH[kz:] | |
| kk = int(np.argmax(seg)) | |
| out['first_zero_cross_t'], out['overshoot_m'], out['overshoot_t'] = float(tH[kz]), float(max(seg[kk], 0.0)), float(tH[kz + kk]) | |
| else: | |
| out['first_zero_cross_t'], out['overshoot_m'], out['overshoot_t'] = None, 0.0, None | |
| out['n_lat_zero_cross'] = sign_changes(latH) | |
| kp = prim['k'] | |
| if kp is not None and kp < len(latH): | |
| out['n_lat_sign_changes_after_entry'] = sign_changes(latH[kp:]) | |
| out['max_abs_lat_after_entry'] = float(np.abs(latH[kp:]).max()) | |
| out['max_abs_head_after_entry'] = float(np.abs(headH[kp:]).max()) | |
| else: | |
| out['n_lat_sign_changes_after_entry'] = out['max_abs_lat_after_entry'] = out['max_abs_head_after_entry'] = None | |
| last5 = tH >= DIAG_H - 5.0 - EPS_T | |
| out['p2p_lat_last5s'] = float(latH[last5].max() - latH[last5].min()) if last5.any() and log_end_t + EPS_T >= DIAG_H else None | |
| out['lat_at_H'] = float(latH[-1]) if len(latH) else None | |
| out['head_at_H'] = float(headH[-1]) if len(headH) else None | |
| out['max_abs_lat_H'] = float(np.abs(latH).max()) if len(latH) else None | |
| out['max_abs_head_H'] = float(np.abs(headH).max()) if len(headH) else None | |
| # commands on published ticks within DIAG_H | |
| if pubm.any(): | |
| wt = tt <= DIAG_H + EPS_T | |
| ps = fcol(tk, 'pub_steering')[pubm][wt] | |
| pt = fcol(tk, 'pub_throttle')[pubm][wt] | |
| rt = fcol(tk, 'raw_throttle')[pubm][wt] | |
| rl = fcol(tk, 'rate_limited')[pubm][wt] | |
| out['frac_steer_sat'] = float(np.mean(np.abs(ps) >= 1 - SAT_EPS)) if len(ps) else None | |
| out['frac_rate_limited'] = float(np.mean(rl == 1)) if len(rl) else None | |
| out['n_steer_reversals'] = sign_changes(ps, STEER_REVERSAL_BAND) | |
| out['n_steer_sign_changes_raw'] = sign_changes(ps) | |
| out['thr_mean'] = float(pt.mean()) if len(pt) else None | |
| out['thr_sd'] = float(pt.std()) if len(pt) else None | |
| out['frac_thr_one'] = float(np.mean(pt >= 1 - SAT_EPS)) if len(pt) else None | |
| out['frac_thr_zero'] = float(np.mean(pt <= SAT_EPS)) if len(pt) else None | |
| out['raw_thr_mean'] = float(np.nanmean(rt)) if len(rt) else None | |
| out['raw_thr_max'] = float(np.nanmax(rt)) if len(rt) else None | |
| te = prim['te'] | |
| pre = tt[wt] <= (te if te is not None else DIAG_H) + EPS_T | |
| out['thr_mean_to_entry'] = float(pt[pre].mean()) if pre.any() else None | |
| spH = speed[after][wH] | |
| out['speed_mean_H'] = float(spH.mean()) if len(spH) else None | |
| out['speed_max_H'] = float(spH.max()) if len(spH) else None | |
| k9 = first_index(speed[after] >= 0.9) | |
| out['t_speed_09'] = float(t[k9]) if k9 is not None else None | |
| if prim['k'] is not None: | |
| out['speed_mean_to_entry'] = float(speed[after][:prim['k'] + 1].mean()) | |
| out['max_abs_yaw_rate_H'] = float(np.abs(yaw_rate[after][wH]).max()) if wH.any() else None | |
| k0, nflag, yrmax = spin_events(yaw_rate, speed, **SPIN) | |
| out['spin_flag'] = int(k0 is not None) | |
| out['spin_first_step'] = int(steps[k0]) if k0 is not None else None | |
| out['spin_n_flagged'] = nflag | |
| out['max_abs_yaw_rate_all'] = yrmax | |
| term = cfg['termination'] | |
| dmin = fcol(st, 'dist_min') | |
| onset, beyond, dmax = divergence(steps, dmin, term['divergence_dist_m'], term['divergence_hold_s']) | |
| out['div_flag'] = int(onset is not None) | |
| out['div_onset_step'] = onset | |
| out['div_onset_t'] = None if onset is None else onset * DT - c0_steps * DT | |
| out['div_recovered_tube'] = (int(prim['te'] is not None and prim['te'] > out['div_onset_t']) | |
| if onset is not None else None) | |
| out['time_beyond_div_dist_s'] = beyond | |
| out['max_dist_min'] = dmax | |
| # ------------------------------------------------------------- checks against the runner summary | |
| chk = {} | |
| chk['chk_tube_first'] = same_opt(out[f'trk100_{cell_name(term["tube_lat_m"], term["tube_head_rad"])}_first'], | |
| summ.get('tube_entry_time_100hz_s'), 0.0) if (term['tube_lat_m'], term['tube_head_rad']) in CELLS else True | |
| chk['chk_tube_tick'] = same_opt(out[f'trk10_{pc}_first'], summ.get('tube_entry_time_tick_s'), 0.0) | |
| if 'tube_entry_time_tick_lookahead_s' in summ: | |
| chk['chk_tube_tick_la'] = same_opt(out[f'la10_{pc}_first'], summ.get('tube_entry_time_tick_lookahead_s'), 0.0) | |
| chk['chk_tube_100hz_la'] = same_opt(out[f'la100_{pc}_first'], summ.get('tube_entry_time_100hz_lookahead_s'), 0.0) | |
| if prim['k'] is not None and 'fraction_inside_tube_after_entry' in summ: | |
| ins = prim['inside'] | |
| chk['chk_fracin_all'] = abs(float(ins[prim['k']:].mean()) - summ['fraction_inside_tube_after_entry']) <= 1e-12 | |
| chk['chk_exits_all'] = int(np.sum(np.diff(ins[prim['k']:].astype(int)) == -1)) == summ['tube_exits_after_entry'] | |
| chk['chk_final_stay'] = same_opt(out[f'trk100_{pc}_final_stay_t'], summ.get('stay_in_tube_time_100hz_s'), 0.0) | |
| chk['chk_max_abs_lat'] = same_opt(out['max_abs_lat_all'], summ.get('max_abs_lat_100hz_m'), 0.0) | |
| chk['chk_final_e'] = same_opt(out['final_e_lat'], summ.get('final_e_lat_m'), 0.0) and \ | |
| same_opt(out['final_e_head'], summ.get('final_e_head_rad'), 0.0) | |
| if 'spin_flag' in summ: | |
| chk['chk_spin'] = (bool(out['spin_flag']) == bool(summ['spin_flag']) and | |
| out['spin_first_step'] == summ.get('spin_first_step') and | |
| same_opt(out['max_abs_yaw_rate_all'], summ.get('max_abs_yaw_rate_100hz'), 0.0)) | |
| if summ.get('divergence_step') is not None: | |
| chk['chk_divergence'] = out['div_onset_step'] == summ['divergence_step'] | |
| chk['chk_err_recompute'] = out['chk_err_recompute_maxdiff'] <= 1e-9 | |
| # guard: a nearest-waypoint index at either end of the straight reference is a design error | |
| nref = len(ref) | |
| ends = [icol(st, 'nearest_idx')] if 'nearest_idx' in st else [] | |
| if pubm.any(): | |
| ends += [icol(tk, k)[pubm] for k in ('idx_lookahead', 'idx_track') if k in tk] | |
| out['ref_index_at_end'] = int(any(np.any((v == 0) | (v == nref - 1)) for v in ends if len(v))) | |
| # the same guard evaluated on [0, c0 + H] of the episode (t_ctrl <= H) for every analysed horizon H, so a | |
| # truncation after c0 + H cannot remove a scenario from the H analysis. The whole-log flag above is kept. | |
| t_ends = ([t_all] if 'nearest_idx' in st else []) + \ | |
| ([tt for k in ('idx_lookahead', 'idx_track') if k in tk] if pubm.any() else []) | |
| for Hh in HORIZONS: | |
| out[f'ref_index_at_end_H{int(Hh)}'] = int(any(np.any(((v == 0) | (v == nref - 1)) & (tv <= Hh + EPS_T)) | |
| for v, tv in zip(ends, t_ends) if len(v))) | |
| for k, v in chk.items(): | |
| if k != 'chk_err_recompute': | |
| out[k] = int(bool(v)) | |
| out['chk_all'] = int(all(bool(v) for v in chk.values())) | |
| return out | |
| def fullpath_metrics(cfg, summ, row, c0_steps, st, tk, ref): | |
| out = {} | |
| name = cfg['reference'].get('name') | |
| closed = CLOSED_PATHS.get(name, False) | |
| n = len(ref) | |
| out['n_waypoints'], out['closed_path'] = n, int(closed) | |
| out['ref_length_m'] = float(np.linalg.norm(np.diff(ref[:, :2], axis=0), axis=1).sum()) | |
| out['online_outcome'] = summ.get('outcome') | |
| pubm = tk['published'] == '1' | |
| x, y, yaw = fcol(tk, 'obs_x')[pubm], fcol(tk, 'obs_y')[pubm], fcol(tk, 'obs_theta')[pubm] | |
| xt, yt, yawt = fcol(tk, 'x')[pubm], fcol(tk, 'y')[pubm], fcol(tk, 'yaw')[pubm] | |
| tstep = icol(tk, 'step')[pubm] | |
| t = tstep * 1e-3 | |
| steps100 = icol(st, 'step') | |
| out['log_end_t'] = float(steps100[-1] * DT - c0_steps * DT) if len(steps100) else 0.0 | |
| out['terminal_stop'] = 0 | |
| if len(x) == 0: | |
| out['eval_outcome'] = 'failed' | |
| out['chk_all'] = 0 | |
| return out | |
| xy = np.column_stack([x, y]) | |
| tr = track(xy, ref, closed) | |
| ci = completion_index(xy, tr, ref) | |
| lat, head = audit_errors(x, y, yaw, ref) | |
| latT, headT = audit_errors(xt, yt, yawt, ref) | |
| out['max_tracked_index'] = int(tr.max()) | |
| fallback = False | |
| if ci is not None: | |
| end, outcome = ci + 1, 'completed' | |
| out['completion_time_s'] = float(t[ci] - t[0]) | |
| out['sim_s_to_offline_completion'] = float(t[ci]) | |
| elif summ.get('outcome') == 'completed' and summ.get('completion_step') is not None: | |
| # compare_calibration.py: the runner stops at its 100 Hz completion step (margin 0), so the last tick can lie | |
| # just before the final waypoint; the window is then all published ticks. | |
| end, outcome, fallback = len(x), 'completed', True | |
| out['completion_time_s'] = float(summ['completion_step'] * 1e-3 - t[0]) | |
| out['sim_s_to_offline_completion'] = float(summ['completion_step'] * 1e-3) | |
| elif tr.max() >= n - 10: | |
| end, outcome = int(np.flatnonzero(tr == tr.max())[0]) + 1, 'end_departure' | |
| else: | |
| end, outcome = len(x), 'failed' | |
| out['eval_outcome'] = outcome | |
| out['completion_from_100hz_fallback'] = int(fallback) | |
| out['completion_index'] = ci | |
| out['post_completion_departure'] = int(outcome == 'completed' and not fallback and summ.get('outcome') != 'completed') | |
| out['eval_end_index'], out['eval_samples'] = end, end | |
| out['mae_lat_m'] = float(np.abs(lat[:end]).mean()) | |
| out['mae_head_rad'] = float(np.abs(head[:end]).mean()) | |
| out['mae_lat_true_m'] = float(np.abs(latT[:end]).mean()) | |
| out['mae_head_true_rad'] = float(np.abs(headT[:end]).mean()) | |
| out['max_abs_lat_window_m'] = float(np.abs(lat[:end]).max()) | |
| end_step = int(tstep[end - 1]) | |
| e100 = fcol(st, 'e_lat') | |
| out['max_abs_lat_100hz_to_end_m'] = float(np.abs(e100[steps100 <= end_step]).max()) if len(e100) else None | |
| # common window [0, L - 2 m] of reference arc length (sensitivity) | |
| s = ref_progress(xy[:end], tr[:end], ref, closed) | |
| kc = first_index(s >= out['ref_length_m'] - 2.0) | |
| endc = kc if kc is not None else end | |
| endc = max(endc, 1) | |
| out['common_window_end_index'] = endc | |
| out['mae_lat_common_m'] = float(np.abs(lat[:endc]).mean()) | |
| out['mae_head_common_rad'] = float(np.abs(head[:endc]).mean()) | |
| # online window (runner summary.run_mae_*): published ticks with step <= completion_step (or the last tick) | |
| tk_steps = icol(tk, 'step') | |
| end_online = summ.get('completion_step') or (int(tk_steps[-1]) if len(tk_steps) else 0) | |
| on = tstep <= end_online | |
| if on.any(): | |
| out['online_mae_lat_m'] = float(np.abs(lat[on]).mean()) | |
| out['online_mae_head_rad'] = float(np.abs(head[on]).mean()) | |
| out['online_mae_samples'] = int(on.sum()) | |
| # behaviour diagnostics on the evaluation window | |
| ps = fcol(tk, 'pub_steering')[pubm][:end] | |
| pt = fcol(tk, 'pub_throttle')[pubm][:end] | |
| rt = fcol(tk, 'raw_throttle')[pubm][:end] | |
| rl = fcol(tk, 'rate_limited')[pubm][:end] | |
| sp = fcol(tk, 'speed')[pubm][:end] | |
| out['fp_frac_steer_sat'] = float(np.mean(np.abs(ps) >= 1 - SAT_EPS)) | |
| out['fp_frac_rate_limited'] = float(np.mean(rl == 1)) | |
| out['fp_n_steer_reversals'] = sign_changes(ps, STEER_REVERSAL_BAND) | |
| out['fp_thr_mean'] = float(pt.mean()) | |
| out['fp_frac_thr_one'] = float(np.mean(pt >= 1 - SAT_EPS)) | |
| out['fp_frac_thr_zero'] = float(np.mean(pt <= SAT_EPS)) | |
| out['fp_raw_thr_mean'] = float(np.nanmean(rt)) | |
| out['fp_speed_mean'] = float(sp.mean()) | |
| out['fp_speed_max'] = float(sp.max()) | |
| w100 = steps100 <= end_step | |
| yr = fcol(st, 'yaw_rate') | |
| sp100 = fcol(st, 'speed') | |
| out['fp_max_abs_yaw_rate'] = float(np.abs(yr[w100]).max()) if w100.any() else None | |
| k0, _, yrmax = spin_events(yr, sp100, **SPIN) | |
| out['fp_spin_flag'] = int(k0 is not None) | |
| dmin = fcol(st, 'dist_min') | |
| out['fp_max_dist_min'] = float(dmin.max()) if len(dmin) else None | |
| chk = {'chk_online_mae': same_opt(out.get('online_mae_lat_m'), summ.get('run_mae_lateral_m'), 1e-15) and | |
| same_opt(out.get('online_mae_head_rad'), summ.get('run_mae_heading_rad'), 1e-15)} | |
| if 'spin_flag' in summ: | |
| chk['chk_spin'] = bool(out['fp_spin_flag']) == bool(summ['spin_flag']) and \ | |
| same_opt(yrmax, summ.get('max_abs_yaw_rate_100hz'), 0.0) | |
| for k, v in chk.items(): | |
| out[k] = int(bool(v)) | |
| out['chk_all'] = int(all(chk.values())) | |
| return out | |
| def extract_episode(task): | |
| """task = (episode_dir, batch, run_dir_label, wp_dirs). Returns (kind, row) or ('error', {...}).""" | |
| ep_dir, batch, run_label, wp_dirs = task | |
| try: | |
| with open(os.path.join(ep_dir, 'summary.json'), 'rb') as f: | |
| sraw = f.read() | |
| summ = json.loads(sraw) | |
| with open(os.path.join(ep_dir, 'episode_config.json')) as f: | |
| cfg = json.load(f) | |
| if summ.get('status') != 'ok': | |
| return 'error', {'episode_dir': ep_dir, 'error': f"status {summ.get('status')} in episodes/"} | |
| row, c0_steps = episode_identity(cfg, summ, batch, run_label) | |
| row['summary_sha256'] = sha256_bytes(sraw) | |
| with open(os.path.join(ep_dir, 'ticks.csv.gz'), 'rb') as f: | |
| traw = f.read() | |
| with open(os.path.join(ep_dir, 'state100.csv.gz'), 'rb') as f: | |
| sraw100 = f.read() | |
| row['ticks_sha256'], row['state_sha256'] = sha256_bytes(traw), sha256_bytes(sraw100) | |
| files = summ.get('files') or {} | |
| row['files_hash_ok'] = int(files.get('ticks.csv.gz') == row['ticks_sha256'] and | |
| files.get('state100.csv.gz') == row['state_sha256']) | |
| tk, _ = read_csv_gz_bytes(traw) | |
| st, _ = read_csv_gz_bytes(sraw100) | |
| ref, ref_sha = build_reference(cfg['reference'], wp_dirs) | |
| row['ref_sha_ok'] = int(ref_sha == summ.get('reference_sha256')) | |
| row.update(tick_status_counts(tk)) | |
| if row['kind'] == 'recovery': | |
| row.update(recovery_metrics(cfg, summ, row, c0_steps, st, tk, ref)) | |
| else: | |
| row.update(fullpath_metrics(cfg, summ, row, c0_steps, st, tk, ref)) | |
| row['chk_all'] = int(bool(row.get('chk_all', 0)) and row['files_hash_ok'] == 1 and row['ref_sha_ok'] == 1 | |
| and row['config_hash_ok'] == 1) | |
| return row['kind'], row | |
| except Exception as e: # noqa: BLE001 - recorded, never silently dropped | |
| import traceback | |
| return 'error', {'episode_dir': ep_dir, 'error': f'{type(e).__name__}: {e}', 'traceback': traceback.format_exc()[-3000:]} | |
| # ----------------------------------------------------------------------------------------------- writing | |
| def fmt(v): | |
| if v is None: | |
| return '' | |
| if isinstance(v, (bool, np.bool_)): | |
| return '1' if v else '0' | |
| if isinstance(v, (int, np.integer)): | |
| return str(int(v)) | |
| if isinstance(v, (float, np.floating)): | |
| v = float(v) | |
| if math.isnan(v): | |
| return '' | |
| return repr(v) | |
| s = str(v) | |
| if any(ch in s for ch in ',"\n'): | |
| s = '"' + s.replace('"', '""') + '"' | |
| return s | |
| def write_shard(path, columns, rows): | |
| unknown = sorted({k for r in rows for k in r} - set(columns)) | |
| if unknown: | |
| raise RuntimeError(f'extractor bug: keys not in the column list: {unknown[:10]}') | |
| buf = io.StringIO() | |
| buf.write(','.join(columns) + '\n') | |
| for r in rows: | |
| buf.write(','.join(fmt(r.get(c)) for c in columns) + '\n') | |
| tmp = path + f'.tmp{os.getpid()}' | |
| data = buf.getvalue().encode() | |
| with open(tmp, 'wb') as raw: | |
| with gzip.GzipFile(fileobj=raw, mode='wb', mtime=0, compresslevel=6) as gz: | |
| gz.write(data) | |
| os.replace(tmp, path) | |
| return sha256_file(path), sha256_bytes(data) | |
| def write_errors(path, rows): | |
| tmp = path + f'.tmp{os.getpid()}' | |
| with open(tmp, 'w') as f: | |
| for r in rows: | |
| f.write(json.dumps(r, sort_keys=True) + '\n') | |
| os.replace(tmp, path) | |
| return sha256_file(path) | |
| def split_csv_line(line): | |
| """Minimal CSV split supporting the quoted fields written by fmt().""" | |
| out, cur, q, i = [], [], False, 0 | |
| while i < len(line): | |
| ch = line[i] | |
| if q: | |
| if ch == '"': | |
| if i + 1 < len(line) and line[i + 1] == '"': | |
| cur.append('"') | |
| i += 1 | |
| else: | |
| q = False | |
| else: | |
| cur.append(ch) | |
| elif ch == '"': | |
| q = True | |
| elif ch == ',': | |
| out.append(''.join(cur)) | |
| cur = [] | |
| else: | |
| cur.append(ch) | |
| i += 1 | |
| out.append(''.join(cur)) | |
| return out | |
| def existing_ids(batch_dir): | |
| """episode key -> summary_sha256 from complete shards (resume).""" | |
| done = {} | |
| for p in sorted(glob.glob(os.path.join(batch_dir, '*_part*.csv.gz'))): | |
| with gzip.open(p, 'rt') as f: | |
| head = split_csv_line(f.readline().rstrip('\n')) | |
| i_run, i_ep, i_sha = head.index('run_dir'), head.index('episode_id'), head.index('summary_sha256') | |
| for line in f: | |
| v = split_csv_line(line.rstrip('\n')) | |
| done[(v[i_run], v[i_ep])] = v[i_sha] | |
| return done | |
| def next_part(batch_dir): | |
| ks = [int(os.path.basename(p).split('_part')[1].split('.')[0]) | |
| for p in glob.glob(os.path.join(batch_dir, '*_part*.*')) if '_part' in p and '.tmp' not in p] | |
| return max(ks) + 1 if ks else 0 | |
| def run_level_info(run_dir): | |
| info = {'run_dir': run_dir, 'manifests': [], 'host_timing': None, | |
| 'n_infrastructure_error_dirs': 0, 'infrastructure_error_dirs': []} | |
| for m in sorted(glob.glob(os.path.join(run_dir, 'manifest_*.json'))): | |
| try: | |
| d = json.load(open(m)) | |
| except Exception as e: # noqa: BLE001 | |
| info['manifests'].append({'file': m, 'error': str(e)}) | |
| continue | |
| info['manifests'].append({'file': os.path.basename(m), 'sha256': sha256_file(m), 'run_id': d.get('run_id'), | |
| 'status': d.get('status'), 'exit_code': d.get('exit_code'), | |
| 'workers': d.get('workers'), 'wall_s': d.get('wall_s'), | |
| 'n_scheduled': d.get('n_scheduled'), 'n_skipped_existing': d.get('n_skipped_existing'), | |
| 'counts': d.get('counts'), 'started_utc': d.get('started_utc'), | |
| 'finished_utc': d.get('finished_utc'), | |
| 'infrastructure_exhausted': d.get('infrastructure_exhausted'), | |
| 'n_infrastructure_events': len(d.get('infrastructure_events') or []), | |
| 'code_digest': (d.get('provenance') or {}).get('code_digest'), | |
| 'host_fingerprint': (d.get('provenance') or {}).get('host_fingerprint'), | |
| 'per_episode_wall_total_s_sum': float(sum((e.get('wall') or {}).get('total_s', 0.0) or 0.0 | |
| for e in d.get('per_episode_wall') or []))}) | |
| ht = os.path.join(run_dir, 'host_timing.json') | |
| if os.path.exists(ht): | |
| info['host_timing'] = json.load(open(ht)) | |
| info['host_timing_sha256'] = sha256_file(ht) | |
| errs = sorted(glob.glob(os.path.join(run_dir, 'infrastructure_errors', '*'))) | |
| info['n_infrastructure_error_dirs'] = len(errs) | |
| info['infrastructure_error_dirs'] = [os.path.basename(e) for e in errs] | |
| return info | |
| def main(argv=None): | |
| ap = argparse.ArgumentParser(description=__doc__, formatter_class=argparse.RawDescriptionHelpFormatter) | |
| ap.add_argument('--out', help='output root') | |
| ap.add_argument('--batch', help='batch name (sub-directory of --out)') | |
| ap.add_argument('--workers', type=int, default=max(1, min(8, (os.cpu_count() or 2) - 2))) | |
| ap.add_argument('--shard-size', type=int, default=2000) | |
| ap.add_argument('--waypoints-dir', action='append', default=[]) | |
| ap.add_argument('--run-label-root', default=None, | |
| help='run_dir values are written relative to this directory (default: absolute paths)') | |
| ap.add_argument('--limit', type=int, default=None, help='extract at most K new episodes (testing)') | |
| ap.add_argument('--selftest', action='store_true') | |
| ap.add_argument('run_dirs', nargs='*') | |
| a = ap.parse_args(argv) | |
| if a.selftest: | |
| return selftest() | |
| if not (a.out and a.batch and a.run_dirs): | |
| ap.error('--out, --batch and at least one RUN_DIR are required') | |
| wp_dirs = a.waypoints_dir + DEFAULT_WAYPOINT_DIRS | |
| bdir = os.path.join(a.out, a.batch) | |
| os.makedirs(bdir, exist_ok=True) | |
| done = existing_ids(bdir) | |
| tasks, refused = [], [] | |
| for rd in a.run_dirs: | |
| rd = os.path.abspath(rd) | |
| label = os.path.relpath(rd, a.run_label_root) if a.run_label_root else rd | |
| for sp in sorted(glob.glob(os.path.join(rd, 'episodes', '*', 'summary.json'))): | |
| ep = os.path.dirname(sp) | |
| eid = os.path.basename(ep) | |
| if eid.startswith('.tmp_'): | |
| continue | |
| key = (label, eid) | |
| if key in done: | |
| if sha256_file(sp) != done[key]: | |
| refused.append(ep) | |
| continue | |
| tasks.append((ep, a.batch, label, wp_dirs)) | |
| if refused: | |
| print(f'REFUSED: {len(refused)} already extracted episodes have a changed summary.json (e.g. {refused[0]}); ' | |
| 'use a new batch directory', file=sys.stderr) | |
| return 2 | |
| if a.limit is not None: | |
| tasks = tasks[:a.limit] | |
| t0 = time.time() | |
| part = next_part(bdir) | |
| buffers = {'recovery': [], 'fullpath': [], 'error': []} | |
| cols = {'recovery': ID_COLUMNS + recovery_columns(), 'fullpath': ID_COLUMNS + fullpath_columns()} | |
| written = [] | |
| def flush(kind, force=False): | |
| nonlocal part | |
| rows = buffers[kind] | |
| if not rows or (len(rows) < a.shard_size and not force): | |
| return | |
| if kind == 'error': | |
| p = os.path.join(bdir, f'errors_part{part:04d}.jsonl') | |
| h, hc = write_errors(p, rows), None | |
| else: | |
| p = os.path.join(bdir, f'{kind}_part{part:04d}.csv.gz') | |
| h, hc = write_shard(p, cols[kind], sorted(rows, key=lambda r: (r['run_dir'], r['episode_id']))) | |
| written.append({'file': os.path.basename(p), 'sha256': h, 'content_sha256': hc, 'rows': len(rows)}) | |
| part += 1 | |
| buffers[kind] = [] | |
| n_done = 0 | |
| if tasks: | |
| ctx = mp.get_context('fork') if hasattr(os, 'fork') else mp.get_context() | |
| with ctx.Pool(a.workers) as pool: | |
| for kind, row in pool.imap_unordered(extract_episode, tasks, chunksize=4): | |
| buffers[kind].append(row) | |
| n_done += 1 | |
| flush(kind) | |
| if n_done % 500 == 0: | |
| print(f'{n_done}/{len(tasks)} episodes, {time.time() - t0:.0f} s', flush=True) | |
| for k in ('recovery', 'fullpath', 'error'): | |
| flush(k, force=True) | |
| # manifest (rewritten; lists every shard present) | |
| shards = [] | |
| for p in sorted(glob.glob(os.path.join(bdir, '*_part*.*'))): | |
| if '.tmp' in p: | |
| continue | |
| rec_ = {'file': os.path.basename(p), 'sha256': sha256_file(p)} | |
| if p.endswith('.csv.gz'): | |
| with gzip.open(p, 'rb') as fh: | |
| rec_['content_sha256'] = sha256_bytes(fh.read()) # gzip bytes depend on the zlib build; content does not | |
| shards.append(rec_) | |
| man_path = os.path.join(bdir, 'MANIFEST.json') | |
| old = json.load(open(man_path)) if os.path.exists(man_path) else {} | |
| invocations = old.get('invocations', []) | |
| invocations.append({'utc': time.strftime('%Y-%m-%dT%H:%M:%SZ', time.gmtime()), 'argv': sys.argv, | |
| 'n_new_episodes': n_done, 'written': written, 'wall_s': time.time() - t0, | |
| 'workers': a.workers}) | |
| n_err = sum(1 for s in shards if s['file'].startswith('errors_')) | |
| manifest = { | |
| 'extractor': EXTRACTOR_VERSION, 'extractor_sha256': sha256_file(os.path.abspath(__file__)), | |
| 'python': sys.version, 'numpy': np.__version__, 'platform': platform.platform(), | |
| 'batch': a.batch, 'run_dirs': [os.path.abspath(r) for r in a.run_dirs], | |
| 'run_level': [run_level_info(os.path.abspath(r)) for r in a.run_dirs], | |
| 'waypoint_dirs': wp_dirs, 'shards': shards, 'n_error_shards': n_err, 'invocations': invocations, | |
| 'definitions': {'lat_grid_m': LAT_GRID, 'head_grid_rad': HEAD_GRID, 'primary_cell': PRIMARY_CELL, | |
| 'residence_s': RESIDENCE_S, 'residence_rule': 'closed interval [t_k, t_k + D], D/0.01 + 1 samples', | |
| 'horizons_s': HORIZONS, 'diag_H_s': DIAG_H, 'steer_reversal_band': STEER_REVERSAL_BAND, | |
| 'spin': SPIN}, | |
| } | |
| with open(man_path + '.tmp', 'w') as f: | |
| json.dump(manifest, f, indent=1, sort_keys=True, default=str) | |
| os.replace(man_path + '.tmp', man_path) | |
| print(json.dumps({'batch': a.batch, 'new_episodes': n_done, 'written': written, 'wall_s': round(time.time() - t0, 1)})) | |
| return 0 if not any(w['file'].startswith('errors_') for w in written) else 1 | |
| # ----------------------------------------------------------------------------------------------- self test | |
| def selftest(): | |
| ok = True | |
| ins = np.array([0, 1, 1, 0, 1, 1, 1, 1, 0], bool) | |
| ok &= first_sustained_index(ins, 3) == 4 and first_sustained_index(ins, 5) is None and first_index(ins) == 1 | |
| ok &= residence_samples(0.5) == 51 and residence_samples(1.0) == 101 | |
| ok &= bounded_score(5.0, 25, None, 25.0, False) == (5.0, 'success') | |
| ok &= bounded_score(None, 25, None, 25.0, False) == (25.0, 'no_entry') | |
| ok &= bounded_score(None, 40, None, 25.0, False) == (None, 'censored') | |
| ok &= bounded_score(10.0, 40, None, 25.0, False) == (10.0, 'success') | |
| ok &= bounded_score(None, 25, None, 6.5, True) == (25.0, 'terminal_stop') | |
| ok &= bounded_score(5.0, 25, 3.0, 25.0, False) == (25.0, 'controller_failure_before_entry') | |
| ok &= bounded_score(5.0, 25, 7.0, 25.0, False) == (5.0, 'success') | |
| ok &= bounded_score(24.8, 25, None, 25.0, False, dur=0.5) == (25.0, 'no_entry') | |
| ok &= sign_changes([0.3, 0.01, -0.02, -0.3, 0.2], 0.05) == 2 and sign_changes([1, -1, 1]) == 2 | |
| steps = np.arange(0, 6000, 10) | |
| d = np.zeros(len(steps)); d[100:400] = 6.0 | |
| on, beyond, mx = divergence(steps, d, 5.0, 2.0) | |
| ok &= on == 1000 and abs(beyond - 3.0) < 1e-9 | |
| d2 = np.zeros(len(steps)); d2[100:250] = 6.0 | |
| ok &= divergence(steps, d2, 5.0, 2.0)[0] is None | |
| # error state on a straight +x line: vehicle at y = -1 heading 0 -> lateral +1 (reference to the left) | |
| ref = build_reference({'type': 'straight', 's_start': -30, 's_end': 60, 'spacing': 0.1}, [])[0] | |
| E, _ = error_state_vec([0.0], [-1.0], [0.0], [0.0], ref, 0.0) | |
| ok &= abs(E[0, 1] - 1.0) < 1e-12 and abs(E[0, 2]) < 1e-12 | |
| print('selftest', 'PASS' if ok else 'FAIL') | |
| return 0 if ok else 1 | |
| if __name__ == '__main__': | |
| sys.exit(main()) | |