"""Export ALL experiment results (old + new) to Excel.""" import os, json, numpy as np from openpyxl import Workbook from openpyxl.styles import Font, PatternFill, Alignment from openpyxl.utils import get_column_letter PROJECT_DIR='/home/user/goat' os.chdir(PROJECT_DIR) wb = Workbook() header_font = Font(bold=True, color='FFFFFF', size=11) header_fill = PatternFill(start_color='4472C4', end_color='4472C4', fill_type='solid') green_fill = PatternFill(start_color='C6EFCE', end_color='C6EFCE', fill_type='solid') yellow_fill = PatternFill(start_color='FFEB9C', end_color='FFEB9C', fill_type='solid') red_fill = PatternFill(start_color='FFC7CE', end_color='FFC7CE', fill_type='solid') orange_fill = PatternFill(start_color='FFDAB9', end_color='FFDAB9', fill_type='solid') def write_header(ws, headers): for col, (desc, w) in enumerate(headers, 1): cell = ws.cell(row=1, column=col, value=desc) cell.font = header_font; cell.fill = header_fill cell.alignment = Alignment(horizontal='center', wrap_text=True) ws.column_dimensions[get_column_letter(col)].width = w # ── Sheet 1: Complete Experiment Table (OLD + NEW) ── ws1 = wb.active ws1.title = "All Experiments" headers1 = [ ('#', 5), ('Experiment', 35), ('Architecture', 16), ('Phase', 14), ('imgsz', 8), ('Epochs', 8), ('mAP50 ↑', 10), ('mAP50-95 ↑', 12), ('Precision ↑', 10), ('Recall ↑', 10), ('Box Loss ↓', 10), ('Cls Loss ↓', 10), ('DFL Loss ↓', 10), ('Note', 30), ] write_header(ws1, headers1) all_exps = [] # ── OLD experiments (D:\DairyGoat, imgsz=960) ── old_data = [ ('yolo11s (old baseline)', 'yolo11s', 'v0-raw_baseline', 960, 80, 0.9034, 0.4619, 0.8815, 0.8384, '-', '-', '-', '旧服务器基准, seed=3407'), ('yolov8s (old baseline)', 'yolov8s', 'v0-raw_baseline', 960, 80, 0.9010, 0.4551, 0.8736, 0.8316, '-', '-', '-', '旧服务器基准'), ('yolo26s (old baseline)', 'yolo26s', 'v0-raw_baseline', 960, 80, 0.8991, 0.4579, 0.8685, 0.8273, '-', '-', '-', '旧服务器基准'), ('yolo11n (old baseline)', 'yolo11n', 'v0-raw_baseline', 960, 80, 0.8824, 0.4383, 0.8535, 0.8006, '-', '-', '-', '旧服务器基准'), ('yolo26n (old baseline)', 'yolo26n', 'v0-raw_baseline', 960, 80, 0.8754, 0.4312, 0.8551, 0.7929, '-', '-', '-', '旧服务器基准'), ('Faster R-CNN R50 FPN', 'FasterRCNN', 'v0-non_yolo', 960, 30, 0.6746, 0.3285, 0.6746, 0.8687, '-', '-', '-', '非YOLO对照, torchvision'), ('FCOS R50 FPN', 'FCOS', 'v0-non_yolo', 960, 30, 0.3079, 0.1455, 0.3079, 0.9030, '-', '-', '-', '非YOLO对照, torchvision'), ('RTMDet-s', 'RTMDet', 'v0-non_yolo', '-', '-', '-', '-', '-', '-', '-', '-', '-', 'mmdet未安装,跳过'), ('yolo11s + night_gamma (old)', 'yolo11s', 'v0-blind_final', 960, 80, 0.9016, 0.4506, 0.8769, 0.8335, '-', '-', '-', '旧服务器blind最终'), ('yolo11s + raw_control (old)', 'yolo11s', 'v0-blind_final', 960, 80, 0.9022, 0.4491, 0.8702, 0.8353, '-', '-', '-', '旧服务器blind最终'), ] for d in old_data: all_exps.append(d + ('OLD',)) # ── NEW experiments (current server, imgsz=1536) ── exp = 'runs/detect/Detection_experiments' for ename in sorted(os.listdir(exp)): csv_path = f'{exp}/{ename}/results.csv' if not os.path.exists(csv_path): continue with open(csv_path) as f: lines = f.readlines() if len(lines) < 2: continue h = [s.strip() for s in lines[0].split(',')] try: idxs = {col: h.index(col) for col in h} except: continue i5095 = h.index('metrics/mAP50-95(B)') best_idx = 0; best_v = 0 for i, line in enumerate(lines[1:]): try: v = float(line.strip().split(',')[i5095]) if v > best_v: best_v = v; best_idx = i+1 except: pass cols = lines[best_idx].strip().split(',') def g(col): try: if col in idxs: return float(cols[idxs[col]]) return '-' except: return '-' n = ename.lower() if 'yolo11m' in n: arch = 'yolo11m' elif 'yolo11n' in n: arch = 'yolo11n' elif 'yolo26' in n: arch = 'yolo26' elif 'yolov8' in n: arch = 'yolov8' else: arch = 'yolo11s' if 'eastleft' in n: phase = 'cam-specialized' elif 'westright' in n: phase = 'cam-specialized' elif 'gmm' in n: phase = 'GMM-W2-loss' elif 'selfchallenge' in n: phase = 'self-challenge' elif 'distilled' in n: phase = 'distillation' elif 'whatif' in n: phase = 'what-if-aug' elif 'mask' in n: phase = 'mask-refine' elif 'expanded' in n: phase = 'data-expand' elif 'sc3' in n or 'p2_s' in n: phase = 'architecture' elif 'gwd' in n or 'wiou' in n or 'accumulate' in n or 'cosine' in n or 'scale_s' in n or 'close' in n or 'refine' in n or 'combined' in n: phase = 'loss/aug tuning' elif 'final_v3' in n: phase = 'label-refine' elif 'seed' in n: phase = 'seed' elif 'baseline' in n: phase = 'baseline' else: phase = 'other' ep_total = len(lines)-1 note = '' mAP5095 = g('metrics/mAP50-95(B)') if isinstance(mAP5095, float): if mAP5095 >= 0.513: note = '🏆 BEST' elif mAP5095 >= 0.511: note = '⭐ GOOD' elif mAP5095 < 0.50: note = '❌ FAIL' if ep_total <= 50 and mAP5095 < 0.50: note = '🔄 TRAINING' all_exps.append(( ename, arch, phase, 1536, 120, # approximate g('metrics/mAP50(B)'), mAP5095, g('metrics/precision(B)'), g('metrics/recall(B)'), g('train/box_loss'), g('train/cls_loss'), g('train/dfl_loss'), note, 'NEW', )) # Sort by mAP50-95 def sort_key(x): v = x[6] if isinstance(v, (int, float)): return v return 0 all_exps.sort(key=sort_key, reverse=True) for i, r in enumerate(all_exps): row = i + 2 ws1.cell(row=row, column=1, value=i+1) for j, val in enumerate(r[:-1]): # skip source tag cell = ws1.cell(row=row, column=j+2, value=val if val != '-' else '-') if j in [5, 6, 7, 8] and isinstance(val, float): # mAP/Prec/Rec cell.number_format = '0.0000' if j == 6 and val >= 0.52: cell.fill = green_fill elif j == 6 and val >= 0.50: cell.fill = yellow_fill elif j in [9, 10, 11] and isinstance(val, float): # losses cell.number_format = '0.0000' # Color old vs new src_row = ws1.cell(row=row, column=1) if r[-1] == 'OLD': src_row.fill = orange_fill # ── Sheet 2: WBF Ensemble (same as before) ── ws2 = wb.create_sheet("WBF Ensemble") headers2 = [ ('Method', 35), ('mAP50-95 ↑', 14), ('IoU@75 ↑', 12), ('Delta', 16), ('N Models', 10), ('N Sources', 10), ('Note', 30), ] write_header(ws2, headers2) wbf_data = [ ('v6_1 Single (训练验证)', 0.5125, 0.4900, '-', 1, 1, '训练验证标准, 基准'), ('v6_1 Single (eval框架)', 0.5521, 0.5789, '—', 1, 1, 'Eval框架基准,单图推理'), ('1 Model x 3 Scales WBF', 0.5626, 0.6003, '+0.010', 1, 3, '单模型多尺度'), ('5 Checkpoint Ensemble', 0.5660, None, '+0.014', 1, 5, '单模型5cp WBF'), ('1m Kitchen Sink (12x)', 0.5691, 0.6055, '+0.017', 1, 12, '单模型x12变体'), ('5 Models x 3 Scales WBF', 0.5776, 0.6169, '+0.025', 5, 15, ''), ('KS 60x (5m)', 0.5816, 0.6203, '+0.030', 5, 60, '5模型x12变体'), ('KS 7 Models', 0.5872, 0.6215, '+0.035', 7, 84, '含yolo11n'), ('KS 10 Models', 0.5880, 0.6266, '+0.036', 10, 120, '10模型x12变体'), ('KS 13 Models 🏆', 0.5888, 0.6266, '+0.037', 13, 156, '当前最佳WBF集成'), ('Mask Weighted WBF', 0.5690, None, '+0.017', 1, 12, '掩码加权→微弱'), ('Prior WBF', 0.5689, None, '-0.0002', 1, 12, '位置先验→无效'), ] for i, row_data in enumerate(wbf_data): for j, val in enumerate(row_data): cell = ws2.cell(row=i+2, column=j+1, value=val if val is not None else '-') if j == 1 and isinstance(val, float): cell.number_format = '0.0000' if val >= 0.58: cell.fill = green_fill # ── Sheet 3: Per-Camera ── ws3 = wb.create_sheet("Per-Camera") headers3 = [ ('Method', 30), ('EastLeft ↑', 14), ('EastRight ↑', 14), ('WestLeft ↑', 14), ('WestRight ↑', 14), ('Overall ↑', 12), ('Note', 25), ] write_header(ws3, headers3) cam_data = [ ('v6_1 Single', 0.5240, 0.6082, 0.5465, 0.5399, 0.5521, '基准'), ('v19_eastleft (特化)', 0.5283, 0.6049, 0.5469, 0.5396, 0.5526, 'EastLeft +0.0043'), ('KS 7 Models', 0.5602, 0.6299, 0.5772, 0.5690, 0.5820, 'WBF全面提升'), ('KS 10 Models', None, None, None, None, 0.5880, ''), ('KS 13 Models BEST', None, None, None, None, 0.5888, '当前最佳'), ] for i, row_data in enumerate(cam_data): for j, val in enumerate(row_data): cell = ws3.cell(row=i+2, column=j+1, value=val if val is not None else '-') if isinstance(val, float): cell.number_format = '0.0000' # ── Sheet 4: Idea Progress ── ws4 = wb.create_sheet("Idea Progress") headers4 = [('Idea', 35), ('Status', 12), ('Best Result', 18), ('Note', 40)] write_header(ws4, headers4) ideas = [ ('WBF Multi-Model Ensemble', 'WORKS', '+0.037 (13m)', '最有效路径'), ('Multi-Scale + Aug WBF', 'WORKS', '+0.010', '免费推理增强'), ('Per-Camera Adaptive WBF', 'WORKS', 'EastLeft +0.036', '逐机位阈值+尺度'), ('Per-Camera Specialized Training', 'WORKS', 'Best single 0.5134', 'EastLeft oversampling'), ('Cross-Validation', 'WORKS', '0.552 +/-0.011', '确认真实mAP'), ('Checkpoint Ensemble', 'WORKS', '+0.014', '单模型5cp免费'), ('Knowledge Distillation', 'DEAD', '0.5018', 'TTA自蒸馏退化'), ('What-If Augmentation', 'DEAD', '0.5067', '亚像素增强'), ('BRN Boundary Refinement', 'DEAD', '退化', '合成噪声不匹配'), ('Model Soup', 'DEAD', '崩溃', 'BN不兼容'), ('Snake/Edge Refinement', 'DEAD', '退化', '山羊毛边界模糊'), ('GWD/WIoU/InnerIoU Loss', 'DEAD', '持平/退化', '改不动天花板'), ('Label Refine v2/v3', 'DEAD', '退化', '引入新偏差'), ('Auto-Labeling v13', 'DEAD', '0.5094', '伪标签上限=老师'), ('Mask-based Label Refine', 'DEAD', '0.4927', '掩码质量不够'), ('Position-Size Prior', 'DEAD', '-0.0002', '模型已校准'), ('Self-Challenge Training', 'RUNNING', '0.5084', '聚焦边界案例'), ('GMM Wasserstein Loss', 'RUNNING', '0.4925', '多高斯建模山羊'), ('WestRight Specialized', 'RUNNING', '0.4435', '刚启动epoch5'), ('Background Diff Segment', 'READY', '掩码已生成', '待训分割头'), ('Attention Probe', 'TODO', '-', '内部特征定位'), ('Contrastive Cross-Camera', 'TODO', '-', '跨机位不变特征'), ('Iterative Denoising Detection', 'TODO', '-', '多轮渐进精修'), ('Orthogonal Error Experts', 'TODO', '-', '刻意制造互补'), ('Stereo Geometry', 'TODO', '-', '双机位立体约束'), ('Iterative Consensus v4', 'TODO', '-', '打破标注天花板'), ] for i, (idea, status, result, note) in enumerate(ideas): for j, val in enumerate([idea, status, result, note]): cell = ws4.cell(row=i+2, column=j+1, value=val) if status == 'WORKS': cell.fill = green_fill elif status == 'DEAD': cell.fill = red_fill elif status == 'RUNNING': cell.fill = yellow_fill elif status == 'READY': cell.fill = orange_fill # ── Sheet 5: Legend ── ws5 = wb.create_sheet("Legend") ws5.column_dimensions['A'].width = 25 ws5.column_dimensions['B'].width = 65 ws5.cell(row=1, column=1, value='指标').font = Font(bold=True) ws5.cell(row=1, column=2, value='说明').font = Font(bold=True) legend = [ ('mAP50', 'IoU=0.5时的平均精度,衡量"检测能力"。越高越好。当前最佳: 0.9616 (v19_eastleft)'), ('mAP50-95', 'IoU 0.5→0.95的平均精度,衡量"定位精度"。越高越好。单模型最佳: 0.5134, WBF集成最佳: 0.5888'), ('Precision', '预测框中真正是羊的比例。越高越好。'), ('Recall', '真羊中被检出的比例。越高越好。'), ('Box Loss (train)', '训练边界框回归损失。越低越好。'), ('Cls Loss (train)', '训练分类损失。越低越好。'), ('DFL Loss (train)', 'Distribution Focal Loss。越低越好。反映框边缘分布精度。'), ('★ 两个mAP口径不同!', '训练验证mAP(0.5125) ≠ Eval框架mAP(0.5521)。前者是ultralytics批处理评估,后者是单图推理评估。两个不可混用。'), ('★ 新旧实验不可混排!', '旧实验(橙色行): imgsz=960, epochs=80, 不同数据划分。新实验(无色): imgsz=1536, epochs=100-150, 统一划分。'), ('WBF', 'Weighted Box Fusion: 多模型多尺度预测的加权融合。推理时多模型×多变体→WBF融合→高精度。'), ('IoU@75', 'IoU阈值0.75时的召回率。越高越好。衡量高精度定位能力。旧v6_1曾只有0.49, 最新WBF达到0.627。'), ('Faster R-CNN / FCOS', '旧服务器上的非YOLO对照。使用TorchVision实现,仅训练30 epochs。'), ] for i, (k, v) in enumerate(legend): ws5.cell(row=i+3, column=1, value=k) ws5.cell(row=i+3, column=2, value=v) path = 'logs/DairyGoat_All_Results_v2.xlsx' wb.save(path) print(f'Saved: {path}') print(f'Sheets: {wb.sheetnames}')