lwl1751 commited on
Commit
7f9d68b
·
verified ·
1 Parent(s): b109eb0

Update benchmark to 1515 queries with complete qrels

Browse files
cell_culture/queries_raw.json CHANGED
@@ -6025,45 +6025,6 @@
6025
  ],
6026
  "explore_field": null
6027
  },
6028
- "cell_culture_R3_pos_000200": {
6029
- "query": "Find experiments in which SH-SY5Y cells are cultured in MEM supplemented with 10% fetal bovine serum.",
6030
- "domain": "cell_culture",
6031
- "type": "reproduction",
6032
- "type_id": "R3",
6033
- "constraint_count": 4,
6034
- "has_numeric": true,
6035
- "has_negation": false,
6036
- "has_range": false,
6037
- "constraints": [
6038
- {
6039
- "field": "culture_medium.basal_medium",
6040
- "op": "=",
6041
- "value": "MEM"
6042
- },
6043
- {
6044
- "field": "culture_medium.serum.concentration",
6045
- "op": "=",
6046
- "value": "10%",
6047
- "parsed": {
6048
- "kind": "point",
6049
- "number": 10.0,
6050
- "unit": "%",
6051
- "raw": "10%"
6052
- }
6053
- },
6054
- {
6055
- "field": "culture_medium.serum.identity",
6056
- "op": "=",
6057
- "value": "fetal bovine serum"
6058
- },
6059
- {
6060
- "field": "cultured_cells.cell_type",
6061
- "op": "=",
6062
- "value": "SH-SY5Y"
6063
- }
6064
- ],
6065
- "explore_field": null
6066
- },
6067
  "cell_culture_R3_pos_000043": {
6068
  "query": "Find experiments in which MC3T3-E1 cells are cultured in MEM supplemented with 10% fetal bovine serum.",
6069
  "domain": "cell_culture",
@@ -8952,4 +8913,4 @@
8952
  ],
8953
  "explore_field": null
8954
  }
8955
- }
 
6025
  ],
6026
  "explore_field": null
6027
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6028
  "cell_culture_R3_pos_000043": {
6029
  "query": "Find experiments in which MC3T3-E1 cells are cultured in MEM supplemented with 10% fetal bovine serum.",
6030
  "domain": "cell_culture",
 
8913
  ],
8914
  "explore_field": null
8915
  }
8916
+ }
electrochemistry/qrels_stage1.json CHANGED
@@ -2154,4 +2154,4 @@
2154
  "electrochemistry_R5_pos_000305": {
2155
  "31959": 1
2156
  }
2157
- }
 
2154
  "electrochemistry_R5_pos_000305": {
2155
  "31959": 1
2156
  }
2157
+ }
electrochemistry/queries_raw.json CHANGED
@@ -479,40 +479,6 @@
479
  ],
480
  "explore_field": null
481
  },
482
- "electrochemistry_R1_pos_000201": {
483
- "query": "Find electrochemical experiments targeting benzaldehyde in 1 mM Na2SO4 electrolyte.",
484
- "domain": "electrochemistry",
485
- "type": "reproduction",
486
- "type_id": "R1",
487
- "constraint_count": 3,
488
- "has_numeric": true,
489
- "has_negation": false,
490
- "has_range": false,
491
- "constraints": [
492
- {
493
- "field": "electrolytes.chemical",
494
- "op": "=",
495
- "value": "Na2SO4"
496
- },
497
- {
498
- "field": "electrolytes.concentration",
499
- "op": "=",
500
- "value": "1 mM",
501
- "parsed": {
502
- "kind": "point",
503
- "number": 1.0,
504
- "unit": "mm",
505
- "raw": "1 mM"
506
- }
507
- },
508
- {
509
- "field": "target_species",
510
- "op": "=",
511
- "value": "benzaldehyde"
512
- }
513
- ],
514
- "explore_field": null
515
- },
516
  "electrochemistry_R2_pos_000415": {
517
  "query": "Find cyclic voltammetry experiments targeting Li+ in PC electrolyte.",
518
  "domain": "electrochemistry",
@@ -618,50 +584,6 @@
618
  ],
619
  "explore_field": null
620
  },
621
- "electrochemistry_R5_pos_000027": {
622
- "query": "Find cyclic voltammetry experiments targeting K3[Fe(CN)6] in 5 mM KCl electrolyte at room temperature.",
623
- "domain": "electrochemistry",
624
- "type": "reproduction",
625
- "type_id": "R5",
626
- "constraint_count": 5,
627
- "has_numeric": true,
628
- "has_negation": false,
629
- "has_range": false,
630
- "constraints": [
631
- {
632
- "field": "electrolytes.chemical",
633
- "op": "=",
634
- "value": "KCl"
635
- },
636
- {
637
- "field": "electrolytes.concentration",
638
- "op": "=",
639
- "value": "5 mM",
640
- "parsed": {
641
- "kind": "point",
642
- "number": 5.0,
643
- "unit": "mm",
644
- "raw": "5 mM"
645
- }
646
- },
647
- {
648
- "field": "measurement_method",
649
- "op": "=",
650
- "value": "CV"
651
- },
652
- {
653
- "field": "target_species",
654
- "op": "=",
655
- "value": "K3[Fe(CN)6]"
656
- },
657
- {
658
- "field": "temperature",
659
- "op": "=",
660
- "value": "room temperature"
661
- }
662
- ],
663
- "explore_field": null
664
- },
665
  "electrochemistry_R5_pos_000023": {
666
  "query": "Find electrochemical impedance spectroscopy experiments targeting [Fe(CN)6]3-/4- in 100 mM KCl at room temperature.",
667
  "domain": "electrochemistry",
@@ -856,56 +778,6 @@
856
  ],
857
  "explore_field": null
858
  },
859
- "electrochemistry_R5_pos_000264": {
860
- "query": "Find cyclic voltammetry experiments targeting K3[Fe(CN)6] in 100 mM K3[Fe(CN)6] at a scan rate of 0.05 V/s.",
861
- "domain": "electrochemistry",
862
- "type": "reproduction",
863
- "type_id": "R5",
864
- "constraint_count": 5,
865
- "has_numeric": true,
866
- "has_negation": false,
867
- "has_range": false,
868
- "constraints": [
869
- {
870
- "field": "electrolytes.chemical",
871
- "op": "=",
872
- "value": "K3[Fe(CN)6]"
873
- },
874
- {
875
- "field": "electrolytes.concentration",
876
- "op": "=",
877
- "value": "100 mM",
878
- "parsed": {
879
- "kind": "point",
880
- "number": 100.0,
881
- "unit": "mm",
882
- "raw": "100 mM"
883
- }
884
- },
885
- {
886
- "field": "measurement_method",
887
- "op": "=",
888
- "value": "CV"
889
- },
890
- {
891
- "field": "scan_rate",
892
- "op": "=",
893
- "value": "0.05 V/s",
894
- "parsed": {
895
- "kind": "point",
896
- "number": 0.05,
897
- "unit": "v/s",
898
- "raw": "0.05 V/s"
899
- }
900
- },
901
- {
902
- "field": "target_species",
903
- "op": "=",
904
- "value": "K3[Fe(CN)6]"
905
- }
906
- ],
907
- "explore_field": null
908
- },
909
  "electrochemistry_R5_pos_000005": {
910
  "query": "Find cyclic voltammetry experiments on K3[Fe(CN)6] in K3[Fe(CN)6] electrolyte at room temperature with scan rates of 10-100 mV/s.",
911
  "domain": "electrochemistry",
@@ -949,56 +821,6 @@
949
  ],
950
  "explore_field": null
951
  },
952
- "electrochemistry_R5_pos_000258": {
953
- "query": "Find cyclic voltammetry experiments targeting aniline in 100 mM H2SO4 at a scan rate of 10 mV/s.",
954
- "domain": "electrochemistry",
955
- "type": "reproduction",
956
- "type_id": "R5",
957
- "constraint_count": 5,
958
- "has_numeric": true,
959
- "has_negation": false,
960
- "has_range": false,
961
- "constraints": [
962
- {
963
- "field": "electrolytes.chemical",
964
- "op": "=",
965
- "value": "H2SO4"
966
- },
967
- {
968
- "field": "electrolytes.concentration",
969
- "op": "=",
970
- "value": "100 mM",
971
- "parsed": {
972
- "kind": "point",
973
- "number": 100.0,
974
- "unit": "mm",
975
- "raw": "100 mM"
976
- }
977
- },
978
- {
979
- "field": "measurement_method",
980
- "op": "=",
981
- "value": "CV"
982
- },
983
- {
984
- "field": "scan_rate",
985
- "op": "=",
986
- "value": "10 mV/s",
987
- "parsed": {
988
- "kind": "point",
989
- "number": 10.0,
990
- "unit": "mv/s",
991
- "raw": "10 mV/s"
992
- }
993
- },
994
- {
995
- "field": "target_species",
996
- "op": "=",
997
- "value": "aniline"
998
- }
999
- ],
1000
- "explore_field": null
1001
- },
1002
  "electrochemistry_R5_pos_000179": {
1003
  "query": "Find cyclic voltammetry experiments targeting K3[Fe(CN)6] in 5 mM K3[Fe(CN)6] electrolyte at a scan rate of 10 mV/s.",
1004
  "domain": "electrochemistry",
@@ -1248,56 +1070,6 @@
1248
  ],
1249
  "explore_field": null
1250
  },
1251
- "electrochemistry_R5_pos_000062": {
1252
- "query": "Find cyclic voltammetry experiments targeting K3[Fe(CN)6] in 100 mM K3[Fe(CN)6] electrolyte at a scan rate of 40 mV/s.",
1253
- "domain": "electrochemistry",
1254
- "type": "reproduction",
1255
- "type_id": "R5",
1256
- "constraint_count": 5,
1257
- "has_numeric": true,
1258
- "has_negation": false,
1259
- "has_range": false,
1260
- "constraints": [
1261
- {
1262
- "field": "electrolytes.chemical",
1263
- "op": "=",
1264
- "value": "K3[Fe(CN)6]"
1265
- },
1266
- {
1267
- "field": "electrolytes.concentration",
1268
- "op": "=",
1269
- "value": "100 mM",
1270
- "parsed": {
1271
- "kind": "point",
1272
- "number": 100.0,
1273
- "unit": "mm",
1274
- "raw": "100 mM"
1275
- }
1276
- },
1277
- {
1278
- "field": "measurement_method",
1279
- "op": "=",
1280
- "value": "CV"
1281
- },
1282
- {
1283
- "field": "scan_rate",
1284
- "op": "=",
1285
- "value": "40 mV/s",
1286
- "parsed": {
1287
- "kind": "point",
1288
- "number": 40.0,
1289
- "unit": "mv/s",
1290
- "raw": "40 mV/s"
1291
- }
1292
- },
1293
- {
1294
- "field": "target_species",
1295
- "op": "=",
1296
- "value": "K3[Fe(CN)6]"
1297
- }
1298
- ],
1299
- "explore_field": null
1300
- },
1301
  "electrochemistry_R5_pos_000206": {
1302
  "query": "Find cyclic voltammetry experiments targeting the K3[Fe(CN)6]/K4[Fe(CN)6] redox couple in 5 mM K3[Fe(CN)6] electrolyte at a scan rate of 50 mV/s.",
1303
  "domain": "electrochemistry",
@@ -1680,45 +1452,6 @@
1680
  ],
1681
  "explore_field": null
1682
  },
1683
- "electrochemistry_R4_pos_000426": {
1684
- "query": "Find electrochemical impedance spectroscopy experiments targeting [Fe(CN)6]3-/4- in 5 mM KNO3 electrolyte.",
1685
- "domain": "electrochemistry",
1686
- "type": "reproduction",
1687
- "type_id": "R4",
1688
- "constraint_count": 4,
1689
- "has_numeric": true,
1690
- "has_negation": false,
1691
- "has_range": false,
1692
- "constraints": [
1693
- {
1694
- "field": "electrolytes.chemical",
1695
- "op": "=",
1696
- "value": "KNO3"
1697
- },
1698
- {
1699
- "field": "electrolytes.concentration",
1700
- "op": "=",
1701
- "value": "5 mM",
1702
- "parsed": {
1703
- "kind": "point",
1704
- "number": 5.0,
1705
- "unit": "mm",
1706
- "raw": "5 mM"
1707
- }
1708
- },
1709
- {
1710
- "field": "measurement_method",
1711
- "op": "=",
1712
- "value": "EIS"
1713
- },
1714
- {
1715
- "field": "target_species",
1716
- "op": "=",
1717
- "value": "[Fe(CN)6]3-/4-"
1718
- }
1719
- ],
1720
- "explore_field": null
1721
- },
1722
  "electrochemistry_R4_pos_000410": {
1723
  "query": "Find electrochemical experiments using electrolysis to target CO2 in 0.5 M KCl electrolyte.",
1724
  "domain": "electrochemistry",
@@ -4555,34 +4288,6 @@
4555
  ],
4556
  "explore_field": "electrolytes.chemical"
4557
  },
4558
- "electrochemistry_EI_NEG_neg_000863": {
4559
- "query": "What electrolyte other than NaOH is used for electrochemical glucose experiments with a Cu sheet working electrode?",
4560
- "domain": "electrochemistry",
4561
- "type": "input_exploration",
4562
- "type_id": "EI_NEG",
4563
- "constraint_count": 3,
4564
- "has_numeric": false,
4565
- "has_negation": true,
4566
- "has_range": false,
4567
- "constraints": [
4568
- {
4569
- "field": "electrolytes.chemical",
4570
- "op": "!=",
4571
- "value": "NaOH"
4572
- },
4573
- {
4574
- "field": "target_species",
4575
- "op": "=",
4576
- "value": "glucose"
4577
- },
4578
- {
4579
- "field": "working_electrode",
4580
- "op": "=",
4581
- "value": "Cu sheet"
4582
- }
4583
- ],
4584
- "explore_field": "electrolytes.chemical"
4585
- },
4586
  "electrochemistry_EI_NEG_neg_001988": {
4587
  "query": "What electrolyte chemical other than NaCl is used for cyclic voltammetry of CH3OH at 100 mV/s and 24 °C?",
4588
  "domain": "electrochemistry",
@@ -6438,45 +6143,6 @@
6438
  ],
6439
  "explore_field": null
6440
  },
6441
- "electrochemistry_R4_pos_000772": {
6442
- "query": "Find electrochemical experiments targeting CO2 at a Pb working electrode in 0.7 M H2SO4 electrolyte.",
6443
- "domain": "electrochemistry",
6444
- "type": "reproduction",
6445
- "type_id": "R4",
6446
- "constraint_count": 4,
6447
- "has_numeric": true,
6448
- "has_negation": false,
6449
- "has_range": false,
6450
- "constraints": [
6451
- {
6452
- "field": "electrolytes.chemical",
6453
- "op": "=",
6454
- "value": "H2SO4"
6455
- },
6456
- {
6457
- "field": "electrolytes.concentration",
6458
- "op": "=",
6459
- "value": "0.7 M",
6460
- "parsed": {
6461
- "kind": "point",
6462
- "number": 0.7,
6463
- "unit": "m",
6464
- "raw": "0.7 M"
6465
- }
6466
- },
6467
- {
6468
- "field": "target_species",
6469
- "op": "=",
6470
- "value": "CO2"
6471
- },
6472
- {
6473
- "field": "working_electrode",
6474
- "op": "=",
6475
- "value": "Pb"
6476
- }
6477
- ],
6478
- "explore_field": null
6479
- },
6480
  "electrochemistry_R4_pos_000211": {
6481
  "query": "Find cyclic voltammetry experiments targeting [Fe(CN)6]3-/[Fe(CN)6]4- in PBS at a scan rate of 100 mV/s.",
6482
  "domain": "electrochemistry",
@@ -6516,40 +6182,6 @@
6516
  ],
6517
  "explore_field": null
6518
  },
6519
- "electrochemistry_R1_pos_000376": {
6520
- "query": "Find electrochemical experiments targeting V(IV) in 2 M VOSO4 electrolyte.",
6521
- "domain": "electrochemistry",
6522
- "type": "reproduction",
6523
- "type_id": "R1",
6524
- "constraint_count": 3,
6525
- "has_numeric": true,
6526
- "has_negation": false,
6527
- "has_range": false,
6528
- "constraints": [
6529
- {
6530
- "field": "electrolytes.chemical",
6531
- "op": "=",
6532
- "value": "VOSO4"
6533
- },
6534
- {
6535
- "field": "electrolytes.concentration",
6536
- "op": "=",
6537
- "value": "2 M",
6538
- "parsed": {
6539
- "kind": "point",
6540
- "number": 2.0,
6541
- "unit": "m",
6542
- "raw": "2 M"
6543
- }
6544
- },
6545
- {
6546
- "field": "target_species",
6547
- "op": "=",
6548
- "value": "V(IV)"
6549
- }
6550
- ],
6551
- "explore_field": null
6552
- },
6553
  "electrochemistry_R4_pos_000062": {
6554
  "query": "Find cyclic voltammetry experiments targeting the [Fe(CN)6]3-/4- redox couple in K4[Fe(CN)6] electrolyte at scan rates of 20-250 mV/s.",
6555
  "domain": "electrochemistry",
@@ -7253,56 +6885,6 @@
7253
  ],
7254
  "explore_field": "electrolytes.chemical"
7255
  },
7256
- "electrochemistry_R5_pos_000106": {
7257
- "query": "Find cyclic voltammetry experiments targeting V(III) in 0.2 M H2SO4 at a scan rate of 2 mV/s.",
7258
- "domain": "electrochemistry",
7259
- "type": "reproduction",
7260
- "type_id": "R5",
7261
- "constraint_count": 5,
7262
- "has_numeric": true,
7263
- "has_negation": false,
7264
- "has_range": false,
7265
- "constraints": [
7266
- {
7267
- "field": "electrolytes.chemical",
7268
- "op": "=",
7269
- "value": "H2SO4"
7270
- },
7271
- {
7272
- "field": "electrolytes.concentration",
7273
- "op": "=",
7274
- "value": "0.2 M",
7275
- "parsed": {
7276
- "kind": "point",
7277
- "number": 0.2,
7278
- "unit": "m",
7279
- "raw": "0.2 M"
7280
- }
7281
- },
7282
- {
7283
- "field": "measurement_method",
7284
- "op": "=",
7285
- "value": "CV"
7286
- },
7287
- {
7288
- "field": "scan_rate",
7289
- "op": "=",
7290
- "value": "2 mV/s",
7291
- "parsed": {
7292
- "kind": "point",
7293
- "number": 2.0,
7294
- "unit": "mv/s",
7295
- "raw": "2 mV/s"
7296
- }
7297
- },
7298
- {
7299
- "field": "target_species",
7300
- "op": "=",
7301
- "value": "V(III)"
7302
- }
7303
- ],
7304
- "explore_field": null
7305
- },
7306
  "electrochemistry_R5_pos_000014": {
7307
  "query": "Find cyclic voltammetry experiments targeting O2 in 0.5 M H2SO4 at 25 °C.",
7308
  "domain": "electrochemistry",
@@ -7424,4 +7006,4 @@
7424
  ],
7425
  "explore_field": null
7426
  }
7427
- }
 
479
  ],
480
  "explore_field": null
481
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
482
  "electrochemistry_R2_pos_000415": {
483
  "query": "Find cyclic voltammetry experiments targeting Li+ in PC electrolyte.",
484
  "domain": "electrochemistry",
 
584
  ],
585
  "explore_field": null
586
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
587
  "electrochemistry_R5_pos_000023": {
588
  "query": "Find electrochemical impedance spectroscopy experiments targeting [Fe(CN)6]3-/4- in 100 mM KCl at room temperature.",
589
  "domain": "electrochemistry",
 
778
  ],
779
  "explore_field": null
780
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
781
  "electrochemistry_R5_pos_000005": {
782
  "query": "Find cyclic voltammetry experiments on K3[Fe(CN)6] in K3[Fe(CN)6] electrolyte at room temperature with scan rates of 10-100 mV/s.",
783
  "domain": "electrochemistry",
 
821
  ],
822
  "explore_field": null
823
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
824
  "electrochemistry_R5_pos_000179": {
825
  "query": "Find cyclic voltammetry experiments targeting K3[Fe(CN)6] in 5 mM K3[Fe(CN)6] electrolyte at a scan rate of 10 mV/s.",
826
  "domain": "electrochemistry",
 
1070
  ],
1071
  "explore_field": null
1072
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1073
  "electrochemistry_R5_pos_000206": {
1074
  "query": "Find cyclic voltammetry experiments targeting the K3[Fe(CN)6]/K4[Fe(CN)6] redox couple in 5 mM K3[Fe(CN)6] electrolyte at a scan rate of 50 mV/s.",
1075
  "domain": "electrochemistry",
 
1452
  ],
1453
  "explore_field": null
1454
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1455
  "electrochemistry_R4_pos_000410": {
1456
  "query": "Find electrochemical experiments using electrolysis to target CO2 in 0.5 M KCl electrolyte.",
1457
  "domain": "electrochemistry",
 
4288
  ],
4289
  "explore_field": "electrolytes.chemical"
4290
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
4291
  "electrochemistry_EI_NEG_neg_001988": {
4292
  "query": "What electrolyte chemical other than NaCl is used for cyclic voltammetry of CH3OH at 100 mV/s and 24 °C?",
4293
  "domain": "electrochemistry",
 
6143
  ],
6144
  "explore_field": null
6145
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6146
  "electrochemistry_R4_pos_000211": {
6147
  "query": "Find cyclic voltammetry experiments targeting [Fe(CN)6]3-/[Fe(CN)6]4- in PBS at a scan rate of 100 mV/s.",
6148
  "domain": "electrochemistry",
 
6182
  ],
6183
  "explore_field": null
6184
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6185
  "electrochemistry_R4_pos_000062": {
6186
  "query": "Find cyclic voltammetry experiments targeting the [Fe(CN)6]3-/4- redox couple in K4[Fe(CN)6] electrolyte at scan rates of 20-250 mV/s.",
6187
  "domain": "electrochemistry",
 
6885
  ],
6886
  "explore_field": "electrolytes.chemical"
6887
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6888
  "electrochemistry_R5_pos_000014": {
6889
  "query": "Find cyclic voltammetry experiments targeting O2 in 0.5 M H2SO4 at 25 °C.",
6890
  "domain": "electrochemistry",
 
7006
  ],
7007
  "explore_field": null
7008
  }
7009
+ }
immunotechnology/qrels_stage1.json CHANGED
@@ -2911,4 +2911,4 @@
2911
  "86039": 1,
2912
  "8939": 1
2913
  }
2914
- }
 
2911
  "86039": 1,
2912
  "8939": 1
2913
  }
2914
+ }
immunotechnology/queries_raw.json CHANGED
@@ -9585,4 +9585,4 @@
9585
  ],
9586
  "explore_field": null
9587
  }
9588
- }
 
9585
  ],
9586
  "explore_field": null
9587
  }
9588
+ }
inorganic_materials/queries_raw.json CHANGED
@@ -683,45 +683,6 @@
683
  ],
684
  "explore_field": null
685
  },
686
- "inorganic_materials_R3_pos_000014": {
687
- "query": "Find synthesis protocols for Al2O3 prepared from alumina with 2 wt% MgO as an additive.",
688
- "domain": "inorganic_materials",
689
- "type": "reproduction",
690
- "type_id": "R3",
691
- "constraint_count": 4,
692
- "has_numeric": true,
693
- "has_negation": false,
694
- "has_range": false,
695
- "constraints": [
696
- {
697
- "field": "dopant_or_additive.amount",
698
- "op": "=",
699
- "value": "2 wt%",
700
- "parsed": {
701
- "kind": "point",
702
- "number": 2.0,
703
- "unit": "wt%",
704
- "raw": "2 wt%"
705
- }
706
- },
707
- {
708
- "field": "dopant_or_additive.identity",
709
- "op": "=",
710
- "value": "MgO"
711
- },
712
- {
713
- "field": "precursors",
714
- "op": "=",
715
- "value": "alumina"
716
- },
717
- {
718
- "field": "target_material",
719
- "op": "=",
720
- "value": "Al2O3"
721
- }
722
- ],
723
- "explore_field": null
724
- },
725
  "inorganic_materials_R4_pos_000009": {
726
  "query": "Find synthesis protocols for CuO/TiO2 prepared from Cu(NO3)2·6H2O with a calcination step at a heating rate of 10 °C/min.",
727
  "domain": "inorganic_materials",
@@ -1402,40 +1363,6 @@
1402
  ],
1403
  "explore_field": null
1404
  },
1405
- "inorganic_materials_R1_pos_000136": {
1406
- "query": "Find synthesis protocols for Al2O3 with 2 wt% MgO additive.",
1407
- "domain": "inorganic_materials",
1408
- "type": "reproduction",
1409
- "type_id": "R1",
1410
- "constraint_count": 3,
1411
- "has_numeric": true,
1412
- "has_negation": false,
1413
- "has_range": false,
1414
- "constraints": [
1415
- {
1416
- "field": "dopant_or_additive.amount",
1417
- "op": "=",
1418
- "value": "2 wt%",
1419
- "parsed": {
1420
- "kind": "point",
1421
- "number": 2.0,
1422
- "unit": "wt%",
1423
- "raw": "2 wt%"
1424
- }
1425
- },
1426
- {
1427
- "field": "dopant_or_additive.identity",
1428
- "op": "=",
1429
- "value": "MgO"
1430
- },
1431
- {
1432
- "field": "target_material",
1433
- "op": "=",
1434
- "value": "Al2O3"
1435
- }
1436
- ],
1437
- "explore_field": null
1438
- },
1439
  "inorganic_materials_R2_pos_000002": {
1440
  "query": "Find synthesis protocols for BaTiO3 using polyvinyl alcohol as an additive and including a calcination step.",
1441
  "domain": "inorganic_materials",
@@ -2472,56 +2399,6 @@
2472
  ],
2473
  "explore_field": null
2474
  },
2475
- "inorganic_materials_R5_pos_000005": {
2476
- "query": "Find hot-press sintering experiments for RGO/Ni-17Mo alloy composite using reduced graphene oxide as an additive, a heating rate of 100 °C/min, and a sintering time of 0.1667 h.",
2477
- "domain": "inorganic_materials",
2478
- "type": "reproduction",
2479
- "type_id": "R5",
2480
- "constraint_count": 5,
2481
- "has_numeric": true,
2482
- "has_negation": false,
2483
- "has_range": false,
2484
- "constraints": [
2485
- {
2486
- "field": "dopant_or_additive.identity",
2487
- "op": "=",
2488
- "value": "reduced graphene oxide"
2489
- },
2490
- {
2491
- "field": "heating_rate",
2492
- "op": "=",
2493
- "value": "100 °C/min",
2494
- "parsed": {
2495
- "kind": "point",
2496
- "number": 100.0,
2497
- "unit": "°c/min",
2498
- "raw": "100 °C/min"
2499
- }
2500
- },
2501
- {
2502
- "field": "sintering.time",
2503
- "op": "=",
2504
- "value": "0.1667 h",
2505
- "parsed": {
2506
- "kind": "point",
2507
- "number": 0.1667,
2508
- "unit": "h",
2509
- "raw": "0.1667 h"
2510
- }
2511
- },
2512
- {
2513
- "field": "synthesis_route",
2514
- "op": "=",
2515
- "value": "hot-press sintering"
2516
- },
2517
- {
2518
- "field": "target_material",
2519
- "op": "=",
2520
- "value": "RGO/Ni-17Mo alloy composite"
2521
- }
2522
- ],
2523
- "explore_field": null
2524
- },
2525
  "inorganic_materials_EM2_pos_000012": {
2526
  "query": "What synthesis route is used to prepare LiCoO2 in air?",
2527
  "domain": "inorganic_materials",
@@ -6235,45 +6112,6 @@
6235
  ],
6236
  "explore_field": null
6237
  },
6238
- "inorganic_materials_R3_pos_000015": {
6239
- "query": "Find synthesis protocols for Al2O3 prepared from alumina with 1.5 wt% SiO2 as an additive.",
6240
- "domain": "inorganic_materials",
6241
- "type": "reproduction",
6242
- "type_id": "R3",
6243
- "constraint_count": 4,
6244
- "has_numeric": true,
6245
- "has_negation": false,
6246
- "has_range": false,
6247
- "constraints": [
6248
- {
6249
- "field": "dopant_or_additive.amount",
6250
- "op": "=",
6251
- "value": "1.5 wt%",
6252
- "parsed": {
6253
- "kind": "point",
6254
- "number": 1.5,
6255
- "unit": "wt%",
6256
- "raw": "1.5 wt%"
6257
- }
6258
- },
6259
- {
6260
- "field": "dopant_or_additive.identity",
6261
- "op": "=",
6262
- "value": "SiO2"
6263
- },
6264
- {
6265
- "field": "precursors",
6266
- "op": "=",
6267
- "value": "alumina"
6268
- },
6269
- {
6270
- "field": "target_material",
6271
- "op": "=",
6272
- "value": "Al2O3"
6273
- }
6274
- ],
6275
- "explore_field": null
6276
- },
6277
  "inorganic_materials_EI2_pos_000168": {
6278
  "query": "What precursors are used to prepare BaTiO3 sintered at 1000 °C?",
6279
  "domain": "inorganic_materials",
@@ -7108,45 +6946,6 @@
7108
  ],
7109
  "explore_field": "dopant_or_additive.identity"
7110
  },
7111
- "inorganic_materials_R4_pos_000060": {
7112
- "query": "Find hot-press sintering experiments for RGO/Ni-17Mo alloy composites containing 0.5 vol% reduced graphene oxide.",
7113
- "domain": "inorganic_materials",
7114
- "type": "reproduction",
7115
- "type_id": "R4",
7116
- "constraint_count": 4,
7117
- "has_numeric": true,
7118
- "has_negation": false,
7119
- "has_range": false,
7120
- "constraints": [
7121
- {
7122
- "field": "dopant_or_additive.amount",
7123
- "op": "=",
7124
- "value": "0.5 vol%",
7125
- "parsed": {
7126
- "kind": "point",
7127
- "number": 0.5,
7128
- "unit": "vol%",
7129
- "raw": "0.5 vol%"
7130
- }
7131
- },
7132
- {
7133
- "field": "dopant_or_additive.identity",
7134
- "op": "=",
7135
- "value": "reduced graphene oxide"
7136
- },
7137
- {
7138
- "field": "synthesis_route",
7139
- "op": "=",
7140
- "value": "hot-press sintering"
7141
- },
7142
- {
7143
- "field": "target_material",
7144
- "op": "=",
7145
- "value": "RGO/Ni-17Mo alloy composite"
7146
- }
7147
- ],
7148
- "explore_field": null
7149
- },
7150
  "inorganic_materials_EI_NEG_neg_000190": {
7151
  "query": "What dopant or additive other than Y2O3 is used for BaTiO3 subjected to calcination?",
7152
  "domain": "inorganic_materials",
@@ -7506,40 +7305,6 @@
7506
  ],
7507
  "explore_field": null
7508
  },
7509
- "inorganic_materials_R1_pos_000083": {
7510
- "query": "Find synthesis protocols for preparing CaO from CaCO3 with a main sintering step at 800 °C.",
7511
- "domain": "inorganic_materials",
7512
- "type": "reproduction",
7513
- "type_id": "R1",
7514
- "constraint_count": 3,
7515
- "has_numeric": true,
7516
- "has_negation": false,
7517
- "has_range": false,
7518
- "constraints": [
7519
- {
7520
- "field": "precursors",
7521
- "op": "=",
7522
- "value": "CaCO3"
7523
- },
7524
- {
7525
- "field": "sintering.temperature",
7526
- "op": "=",
7527
- "value": "800 °C",
7528
- "parsed": {
7529
- "kind": "point",
7530
- "number": 800.0,
7531
- "unit": "c",
7532
- "raw": "800 °C"
7533
- }
7534
- },
7535
- {
7536
- "field": "target_material",
7537
- "op": "=",
7538
- "value": "CaO"
7539
- }
7540
- ],
7541
- "explore_field": null
7542
- },
7543
  "inorganic_materials_R4_pos_000002": {
7544
  "query": "Find spark plasma sintering experiments for Si3N4 with Y2O3 additive under N2 atmosphere.",
7545
  "domain": "inorganic_materials",
@@ -7835,40 +7600,6 @@
7835
  ],
7836
  "explore_field": null
7837
  },
7838
- "inorganic_materials_R1_pos_000137": {
7839
- "query": "Find synthesis protocols for Al2O3 with 1.5 wt% SiO2 additive.",
7840
- "domain": "inorganic_materials",
7841
- "type": "reproduction",
7842
- "type_id": "R1",
7843
- "constraint_count": 3,
7844
- "has_numeric": true,
7845
- "has_negation": false,
7846
- "has_range": false,
7847
- "constraints": [
7848
- {
7849
- "field": "dopant_or_additive.amount",
7850
- "op": "=",
7851
- "value": "1.5 wt%",
7852
- "parsed": {
7853
- "kind": "point",
7854
- "number": 1.5,
7855
- "unit": "wt%",
7856
- "raw": "1.5 wt%"
7857
- }
7858
- },
7859
- {
7860
- "field": "dopant_or_additive.identity",
7861
- "op": "=",
7862
- "value": "SiO2"
7863
- },
7864
- {
7865
- "field": "target_material",
7866
- "op": "=",
7867
- "value": "Al2O3"
7868
- }
7869
- ],
7870
- "explore_field": null
7871
- },
7872
  "inorganic_materials_R4_pos_000037": {
7873
  "query": "Find spark plasma sintering experiments for (Hf0.2Nb0.2Ta0.2Mo0.2Ti0.2)B2 with graphite as an additive and a sintering time of 0.3333 h.",
7874
  "domain": "inorganic_materials",
 
683
  ],
684
  "explore_field": null
685
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
686
  "inorganic_materials_R4_pos_000009": {
687
  "query": "Find synthesis protocols for CuO/TiO2 prepared from Cu(NO3)2·6H2O with a calcination step at a heating rate of 10 °C/min.",
688
  "domain": "inorganic_materials",
 
1363
  ],
1364
  "explore_field": null
1365
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1366
  "inorganic_materials_R2_pos_000002": {
1367
  "query": "Find synthesis protocols for BaTiO3 using polyvinyl alcohol as an additive and including a calcination step.",
1368
  "domain": "inorganic_materials",
 
2399
  ],
2400
  "explore_field": null
2401
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
2402
  "inorganic_materials_EM2_pos_000012": {
2403
  "query": "What synthesis route is used to prepare LiCoO2 in air?",
2404
  "domain": "inorganic_materials",
 
6112
  ],
6113
  "explore_field": null
6114
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6115
  "inorganic_materials_EI2_pos_000168": {
6116
  "query": "What precursors are used to prepare BaTiO3 sintered at 1000 °C?",
6117
  "domain": "inorganic_materials",
 
6946
  ],
6947
  "explore_field": "dopant_or_additive.identity"
6948
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6949
  "inorganic_materials_EI_NEG_neg_000190": {
6950
  "query": "What dopant or additive other than Y2O3 is used for BaTiO3 subjected to calcination?",
6951
  "domain": "inorganic_materials",
 
7305
  ],
7306
  "explore_field": null
7307
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
7308
  "inorganic_materials_R4_pos_000002": {
7309
  "query": "Find spark plasma sintering experiments for Si3N4 with Y2O3 additive under N2 atmosphere.",
7310
  "domain": "inorganic_materials",
 
7600
  ],
7601
  "explore_field": null
7602
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
7603
  "inorganic_materials_R4_pos_000037": {
7604
  "query": "Find spark plasma sintering experiments for (Hf0.2Nb0.2Ta0.2Mo0.2Ti0.2)B2 with graphite as an additive and a sintering time of 0.3333 h.",
7605
  "domain": "inorganic_materials",
organic_synthesis/queries_raw.json CHANGED
@@ -363,34 +363,6 @@
363
  ],
364
  "explore_field": null
365
  },
366
- "organic_synthesis_R1_pos_000200": {
367
- "query": "Find Suzuki coupling experiments using CuI as the catalyst in 1,4-dioxane.",
368
- "domain": "organic_synthesis",
369
- "type": "reproduction",
370
- "type_id": "R1",
371
- "constraint_count": 3,
372
- "has_numeric": false,
373
- "has_negation": false,
374
- "has_range": false,
375
- "constraints": [
376
- {
377
- "field": "catalysts.name",
378
- "op": "=",
379
- "value": "CuI"
380
- },
381
- {
382
- "field": "solvents",
383
- "op": "=",
384
- "value": "1,4-dioxane"
385
- },
386
- {
387
- "field": "transformation_type",
388
- "op": "=",
389
- "value": "Suzuki coupling"
390
- }
391
- ],
392
- "explore_field": null
393
- },
394
  "organic_synthesis_R1_pos_000339": {
395
  "query": "Find asymmetric Diels-Alder reaction experiments using (E)-cinnamaldehyde as a substrate in H2O.",
396
  "domain": "organic_synthesis",
@@ -877,44 +849,6 @@
877
  ],
878
  "explore_field": null
879
  },
880
- "organic_synthesis_R5_pos_000045": {
881
- "query": "Find thermal Sonogashira coupling experiments using allylpalladium chloride dimer as the catalyst, DABCO as the base, and acetonitrile as the solvent.",
882
- "domain": "organic_synthesis",
883
- "type": "reproduction",
884
- "type_id": "R5",
885
- "constraint_count": 5,
886
- "has_numeric": false,
887
- "has_negation": false,
888
- "has_range": false,
889
- "constraints": [
890
- {
891
- "field": "activation_mode",
892
- "op": "=",
893
- "value": "thermal"
894
- },
895
- {
896
- "field": "bases",
897
- "op": "=",
898
- "value": "DABCO"
899
- },
900
- {
901
- "field": "catalysts.name",
902
- "op": "=",
903
- "value": "allylpalladium chloride dimer"
904
- },
905
- {
906
- "field": "solvents",
907
- "op": "=",
908
- "value": "acetonitrile"
909
- },
910
- {
911
- "field": "transformation_type",
912
- "op": "=",
913
- "value": "Sonogashira coupling"
914
- }
915
- ],
916
- "explore_field": null
917
- },
918
  "organic_synthesis_R5_pos_000040": {
919
  "query": "Find thermal Sonogashira coupling experiments using CuI as catalyst, diisopropylamine as base, and THF as solvent.",
920
  "domain": "organic_synthesis",
@@ -1257,44 +1191,6 @@
1257
  ],
1258
  "explore_field": null
1259
  },
1260
- "organic_synthesis_R5_pos_000012": {
1261
- "query": "Find thermal CuAAC reactions of azides carried out in ethanol with sodium ascorbate.",
1262
- "domain": "organic_synthesis",
1263
- "type": "reproduction",
1264
- "type_id": "R5",
1265
- "constraint_count": 5,
1266
- "has_numeric": false,
1267
- "has_negation": false,
1268
- "has_range": false,
1269
- "constraints": [
1270
- {
1271
- "field": "activation_mode",
1272
- "op": "=",
1273
- "value": "thermal"
1274
- },
1275
- {
1276
- "field": "additives",
1277
- "op": "=",
1278
- "value": "sodium ascorbate"
1279
- },
1280
- {
1281
- "field": "solvents",
1282
- "op": "=",
1283
- "value": "ethanol"
1284
- },
1285
- {
1286
- "field": "substrates",
1287
- "op": "=",
1288
- "value": "azide"
1289
- },
1290
- {
1291
- "field": "transformation_type",
1292
- "op": "=",
1293
- "value": "CuAAC"
1294
- }
1295
- ],
1296
- "explore_field": null
1297
- },
1298
  "organic_synthesis_R5_pos_000088": {
1299
  "query": "Find thermal Suzuki-Miyaura coupling experiments using Pd(amphos)Cl2 as the catalyst, NaHCO3 as the base, and toluene as the solvent.",
1300
  "domain": "organic_synthesis",
@@ -1371,120 +1267,6 @@
1371
  ],
1372
  "explore_field": null
1373
  },
1374
- "organic_synthesis_R5_pos_000072": {
1375
- "query": "Find thermal Suzuki coupling experiments using CuI as the catalyst, K2CO3 as the base, and 1,4-dioxane as the solvent.",
1376
- "domain": "organic_synthesis",
1377
- "type": "reproduction",
1378
- "type_id": "R5",
1379
- "constraint_count": 5,
1380
- "has_numeric": false,
1381
- "has_negation": false,
1382
- "has_range": false,
1383
- "constraints": [
1384
- {
1385
- "field": "activation_mode",
1386
- "op": "=",
1387
- "value": "thermal"
1388
- },
1389
- {
1390
- "field": "bases",
1391
- "op": "=",
1392
- "value": "K2CO3"
1393
- },
1394
- {
1395
- "field": "catalysts.name",
1396
- "op": "=",
1397
- "value": "CuI"
1398
- },
1399
- {
1400
- "field": "solvents",
1401
- "op": "=",
1402
- "value": "1,4-dioxane"
1403
- },
1404
- {
1405
- "field": "transformation_type",
1406
- "op": "=",
1407
- "value": "Suzuki coupling"
1408
- }
1409
- ],
1410
- "explore_field": null
1411
- },
1412
- "organic_synthesis_R5_pos_000007": {
1413
- "query": "Find thermal A3 coupling reactions using Cu3 NC (NHC) as the catalyst, 4 Å molecular sieves as an additive, and DCM as the solvent.",
1414
- "domain": "organic_synthesis",
1415
- "type": "reproduction",
1416
- "type_id": "R5",
1417
- "constraint_count": 5,
1418
- "has_numeric": false,
1419
- "has_negation": false,
1420
- "has_range": false,
1421
- "constraints": [
1422
- {
1423
- "field": "activation_mode",
1424
- "op": "=",
1425
- "value": "thermal"
1426
- },
1427
- {
1428
- "field": "additives",
1429
- "op": "=",
1430
- "value": "4 Å molecular sieves"
1431
- },
1432
- {
1433
- "field": "catalysts.name",
1434
- "op": "=",
1435
- "value": "Cu3 NC (NHC)"
1436
- },
1437
- {
1438
- "field": "solvents",
1439
- "op": "=",
1440
- "value": "DCM"
1441
- },
1442
- {
1443
- "field": "transformation_type",
1444
- "op": "=",
1445
- "value": "A3 coupling"
1446
- }
1447
- ],
1448
- "explore_field": null
1449
- },
1450
- "organic_synthesis_R5_pos_000100": {
1451
- "query": "Find thermal Sonogashira coupling experiments of an alkyne in acetonitrile using DABCO as the base.",
1452
- "domain": "organic_synthesis",
1453
- "type": "reproduction",
1454
- "type_id": "R5",
1455
- "constraint_count": 5,
1456
- "has_numeric": false,
1457
- "has_negation": false,
1458
- "has_range": false,
1459
- "constraints": [
1460
- {
1461
- "field": "activation_mode",
1462
- "op": "=",
1463
- "value": "thermal"
1464
- },
1465
- {
1466
- "field": "bases",
1467
- "op": "=",
1468
- "value": "DABCO"
1469
- },
1470
- {
1471
- "field": "solvents",
1472
- "op": "=",
1473
- "value": "acetonitrile"
1474
- },
1475
- {
1476
- "field": "substrates",
1477
- "op": "=",
1478
- "value": "alkyne"
1479
- },
1480
- {
1481
- "field": "transformation_type",
1482
- "op": "=",
1483
- "value": "Sonogashira coupling"
1484
- }
1485
- ],
1486
- "explore_field": null
1487
- },
1488
  "organic_synthesis_R5_pos_000064": {
1489
  "query": "Find thermal Suzuki coupling reactions using Pd(PPh3)4 as catalyst, Na2CO3 as base, and methanol as solvent.",
1490
  "domain": "organic_synthesis",
@@ -1637,44 +1419,6 @@
1637
  ],
1638
  "explore_field": null
1639
  },
1640
- "organic_synthesis_R5_pos_000013": {
1641
- "query": "Find thermal CuAAC experiments using tripropargylamine in H2O with sodium ascorbate.",
1642
- "domain": "organic_synthesis",
1643
- "type": "reproduction",
1644
- "type_id": "R5",
1645
- "constraint_count": 5,
1646
- "has_numeric": false,
1647
- "has_negation": false,
1648
- "has_range": false,
1649
- "constraints": [
1650
- {
1651
- "field": "activation_mode",
1652
- "op": "=",
1653
- "value": "thermal"
1654
- },
1655
- {
1656
- "field": "additives",
1657
- "op": "=",
1658
- "value": "sodium ascorbate"
1659
- },
1660
- {
1661
- "field": "solvents",
1662
- "op": "=",
1663
- "value": "H2O"
1664
- },
1665
- {
1666
- "field": "substrates",
1667
- "op": "=",
1668
- "value": "tripropargylamine"
1669
- },
1670
- {
1671
- "field": "transformation_type",
1672
- "op": "=",
1673
- "value": "CuAAC"
1674
- }
1675
- ],
1676
- "explore_field": null
1677
- },
1678
  "organic_synthesis_R5_pos_000134": {
1679
  "query": "Find thermal Suzuki coupling experiments using N-(prop-2-yn-1-yl)benzamide as a substrate with KOAc in 1,4-dioxane.",
1680
  "domain": "organic_synthesis",
@@ -1751,44 +1495,6 @@
1751
  ],
1752
  "explore_field": null
1753
  },
1754
- "organic_synthesis_R5_pos_000135": {
1755
- "query": "Find thermal Suzuki coupling experiments using (4-methoxyphenyl)boronic acid in 1,4-dioxane with KOAc as the base.",
1756
- "domain": "organic_synthesis",
1757
- "type": "reproduction",
1758
- "type_id": "R5",
1759
- "constraint_count": 5,
1760
- "has_numeric": false,
1761
- "has_negation": false,
1762
- "has_range": false,
1763
- "constraints": [
1764
- {
1765
- "field": "activation_mode",
1766
- "op": "=",
1767
- "value": "thermal"
1768
- },
1769
- {
1770
- "field": "bases",
1771
- "op": "=",
1772
- "value": "KOAc"
1773
- },
1774
- {
1775
- "field": "solvents",
1776
- "op": "=",
1777
- "value": "1,4-dioxane"
1778
- },
1779
- {
1780
- "field": "substrates",
1781
- "op": "=",
1782
- "value": "(4-methoxyphenyl)boronic acid"
1783
- },
1784
- {
1785
- "field": "transformation_type",
1786
- "op": "=",
1787
- "value": "Suzuki coupling"
1788
- }
1789
- ],
1790
- "explore_field": null
1791
- },
1792
  "organic_synthesis_R5_pos_000055": {
1793
  "query": "Find thermal Suzuki-Miyaura coupling experiments using Pd(dppf)Cl2 as catalyst, K2CO3 as base, and H2O as solvent.",
1794
  "domain": "organic_synthesis",
@@ -2469,39 +2175,6 @@
2469
  ],
2470
  "explore_field": null
2471
  },
2472
- "organic_synthesis_R4_pos_000140": {
2473
- "query": "Find thermal Suzuki coupling reactions using CuI as the catalyst in H2O.",
2474
- "domain": "organic_synthesis",
2475
- "type": "reproduction",
2476
- "type_id": "R4",
2477
- "constraint_count": 4,
2478
- "has_numeric": false,
2479
- "has_negation": false,
2480
- "has_range": false,
2481
- "constraints": [
2482
- {
2483
- "field": "activation_mode",
2484
- "op": "=",
2485
- "value": "thermal"
2486
- },
2487
- {
2488
- "field": "catalysts.name",
2489
- "op": "=",
2490
- "value": "CuI"
2491
- },
2492
- {
2493
- "field": "solvents",
2494
- "op": "=",
2495
- "value": "H2O"
2496
- },
2497
- {
2498
- "field": "transformation_type",
2499
- "op": "=",
2500
- "value": "Suzuki coupling"
2501
- }
2502
- ],
2503
- "explore_field": null
2504
- },
2505
  "organic_synthesis_R4_pos_000278": {
2506
  "query": "Find thermal Suzuki-Miyaura coupling experiments using (2-methoxypyrimidin-5-yl)boronic acid in 1,4-dioxane.",
2507
  "domain": "organic_synthesis",
@@ -2601,39 +2274,6 @@
2601
  ],
2602
  "explore_field": null
2603
  },
2604
- "organic_synthesis_R4_pos_000074": {
2605
- "query": "Find thermal Sonogashira coupling experiments using allylpalladium chloride dimer as the catalyst in acetonitrile.",
2606
- "domain": "organic_synthesis",
2607
- "type": "reproduction",
2608
- "type_id": "R4",
2609
- "constraint_count": 4,
2610
- "has_numeric": false,
2611
- "has_negation": false,
2612
- "has_range": false,
2613
- "constraints": [
2614
- {
2615
- "field": "activation_mode",
2616
- "op": "=",
2617
- "value": "thermal"
2618
- },
2619
- {
2620
- "field": "catalysts.name",
2621
- "op": "=",
2622
- "value": "allylpalladium chloride dimer"
2623
- },
2624
- {
2625
- "field": "solvents",
2626
- "op": "=",
2627
- "value": "acetonitrile"
2628
- },
2629
- {
2630
- "field": "transformation_type",
2631
- "op": "=",
2632
- "value": "Sonogashira coupling"
2633
- }
2634
- ],
2635
- "explore_field": null
2636
- },
2637
  "organic_synthesis_R3_pos_000059": {
2638
  "query": "Find Suzuki coupling experiments using 1,3,5-tribromobenzene as the substrate, colloidal Pd as the catalyst, and KOH as the base.",
2639
  "domain": "organic_synthesis",
@@ -6625,39 +6265,6 @@
6625
  ],
6626
  "explore_field": null
6627
  },
6628
- "organic_synthesis_R4_pos_000034": {
6629
- "query": "Find thermal Sonogashira coupling experiments using allylpalladium chloride dimer as the catalyst and DABCO as the base.",
6630
- "domain": "organic_synthesis",
6631
- "type": "reproduction",
6632
- "type_id": "R4",
6633
- "constraint_count": 4,
6634
- "has_numeric": false,
6635
- "has_negation": false,
6636
- "has_range": false,
6637
- "constraints": [
6638
- {
6639
- "field": "activation_mode",
6640
- "op": "=",
6641
- "value": "thermal"
6642
- },
6643
- {
6644
- "field": "bases",
6645
- "op": "=",
6646
- "value": "DABCO"
6647
- },
6648
- {
6649
- "field": "catalysts.name",
6650
- "op": "=",
6651
- "value": "allylpalladium chloride dimer"
6652
- },
6653
- {
6654
- "field": "transformation_type",
6655
- "op": "=",
6656
- "value": "Sonogashira coupling"
6657
- }
6658
- ],
6659
- "explore_field": null
6660
- },
6661
  "organic_synthesis_R1_pos_000342": {
6662
  "query": "Find asymmetric Diels–Alder reaction experiments using cyclopentadiene in DMF.",
6663
  "domain": "organic_synthesis",
@@ -8023,39 +7630,6 @@
8023
  ],
8024
  "explore_field": null
8025
  },
8026
- "organic_synthesis_R4_pos_000159": {
8027
- "query": "Find thermal A3 coupling reactions using Cu3 NC (NHC) as the catalyst in DCM.",
8028
- "domain": "organic_synthesis",
8029
- "type": "reproduction",
8030
- "type_id": "R4",
8031
- "constraint_count": 4,
8032
- "has_numeric": false,
8033
- "has_negation": false,
8034
- "has_range": false,
8035
- "constraints": [
8036
- {
8037
- "field": "activation_mode",
8038
- "op": "=",
8039
- "value": "thermal"
8040
- },
8041
- {
8042
- "field": "catalysts.name",
8043
- "op": "=",
8044
- "value": "Cu3 NC (NHC)"
8045
- },
8046
- {
8047
- "field": "solvents",
8048
- "op": "=",
8049
- "value": "DCM"
8050
- },
8051
- {
8052
- "field": "transformation_type",
8053
- "op": "=",
8054
- "value": "A3 coupling"
8055
- }
8056
- ],
8057
- "explore_field": null
8058
- },
8059
  "organic_synthesis_R1_pos_000118": {
8060
  "query": "Find Stille coupling experiments using Pd(PPh3)2Cl2 as the catalyst in tetrahydrofuran.",
8061
  "domain": "organic_synthesis",
 
363
  ],
364
  "explore_field": null
365
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
366
  "organic_synthesis_R1_pos_000339": {
367
  "query": "Find asymmetric Diels-Alder reaction experiments using (E)-cinnamaldehyde as a substrate in H2O.",
368
  "domain": "organic_synthesis",
 
849
  ],
850
  "explore_field": null
851
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
852
  "organic_synthesis_R5_pos_000040": {
853
  "query": "Find thermal Sonogashira coupling experiments using CuI as catalyst, diisopropylamine as base, and THF as solvent.",
854
  "domain": "organic_synthesis",
 
1191
  ],
1192
  "explore_field": null
1193
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1194
  "organic_synthesis_R5_pos_000088": {
1195
  "query": "Find thermal Suzuki-Miyaura coupling experiments using Pd(amphos)Cl2 as the catalyst, NaHCO3 as the base, and toluene as the solvent.",
1196
  "domain": "organic_synthesis",
 
1267
  ],
1268
  "explore_field": null
1269
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1270
  "organic_synthesis_R5_pos_000064": {
1271
  "query": "Find thermal Suzuki coupling reactions using Pd(PPh3)4 as catalyst, Na2CO3 as base, and methanol as solvent.",
1272
  "domain": "organic_synthesis",
 
1419
  ],
1420
  "explore_field": null
1421
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1422
  "organic_synthesis_R5_pos_000134": {
1423
  "query": "Find thermal Suzuki coupling experiments using N-(prop-2-yn-1-yl)benzamide as a substrate with KOAc in 1,4-dioxane.",
1424
  "domain": "organic_synthesis",
 
1495
  ],
1496
  "explore_field": null
1497
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1498
  "organic_synthesis_R5_pos_000055": {
1499
  "query": "Find thermal Suzuki-Miyaura coupling experiments using Pd(dppf)Cl2 as catalyst, K2CO3 as base, and H2O as solvent.",
1500
  "domain": "organic_synthesis",
 
2175
  ],
2176
  "explore_field": null
2177
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
2178
  "organic_synthesis_R4_pos_000278": {
2179
  "query": "Find thermal Suzuki-Miyaura coupling experiments using (2-methoxypyrimidin-5-yl)boronic acid in 1,4-dioxane.",
2180
  "domain": "organic_synthesis",
 
2274
  ],
2275
  "explore_field": null
2276
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
2277
  "organic_synthesis_R3_pos_000059": {
2278
  "query": "Find Suzuki coupling experiments using 1,3,5-tribromobenzene as the substrate, colloidal Pd as the catalyst, and KOH as the base.",
2279
  "domain": "organic_synthesis",
 
6265
  ],
6266
  "explore_field": null
6267
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
6268
  "organic_synthesis_R1_pos_000342": {
6269
  "query": "Find asymmetric Diels–Alder reaction experiments using cyclopentadiene in DMF.",
6270
  "domain": "organic_synthesis",
 
7630
  ],
7631
  "explore_field": null
7632
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
7633
  "organic_synthesis_R1_pos_000118": {
7634
  "query": "Find Stille coupling experiments using Pd(PPh3)2Cl2 as the catalyst in tetrahydrofuran.",
7635
  "domain": "organic_synthesis",
polymer_materials/qrels_stage1.json CHANGED
@@ -1776,4 +1776,4 @@
1776
  "44377": 1,
1777
  "44378": 1
1778
  }
1779
- }
 
1776
  "44377": 1,
1777
  "44378": 1
1778
  }
1779
+ }
polymer_materials/queries_raw.json CHANGED
@@ -154,44 +154,6 @@
154
  ],
155
  "explore_field": null
156
  },
157
- "polymer_materials_R4_pos_000005": {
158
- "query": "Find curing experiments using a UV lamp at 320-400 nm with Darocur 1173 to cure the PM-2 polymer system.",
159
- "domain": "polymer_materials",
160
- "type": "reproduction",
161
- "type_id": "R4",
162
- "constraint_count": 4,
163
- "has_numeric": true,
164
- "has_negation": false,
165
- "has_range": true,
166
- "constraints": [
167
- {
168
- "field": "light_source_type",
169
- "op": "=",
170
- "value": "UV lamp"
171
- },
172
- {
173
- "field": "photoinitiators.name",
174
- "op": "=",
175
- "value": "Darocur 1173"
176
- },
177
- {
178
- "field": "polymer_system",
179
- "op": "=",
180
- "value": "PM-2"
181
- },
182
- {
183
- "field": "wavelength",
184
- "op": "between",
185
- "range": {
186
- "lower": 320.0,
187
- "upper": 400.0,
188
- "unit": "nm"
189
- },
190
- "surface": "320-400 nm"
191
- }
192
- ],
193
- "explore_field": null
194
- },
195
  "polymer_materials_R3_pos_000006": {
196
  "query": "Find photocuring experiments using HEMA with PEGDA as a crosslinking agent and TPO as the photoinitiator under 385-420 nm irradiation.",
197
  "domain": "polymer_materials",
@@ -1123,40 +1085,6 @@
1123
  ],
1124
  "explore_field": null
1125
  },
1126
- "polymer_materials_R1_pos_000127": {
1127
- "query": "Find photocuring experiments using TEGDMA with BAPO at 0.5 wt% as the photoinitiator.",
1128
- "domain": "polymer_materials",
1129
- "type": "reproduction",
1130
- "type_id": "R1",
1131
- "constraint_count": 3,
1132
- "has_numeric": true,
1133
- "has_negation": false,
1134
- "has_range": false,
1135
- "constraints": [
1136
- {
1137
- "field": "photoinitiators.loading",
1138
- "op": "=",
1139
- "value": "0.5 wt%",
1140
- "parsed": {
1141
- "kind": "point",
1142
- "number": 0.5,
1143
- "unit": "wt%",
1144
- "raw": "0.5 wt%"
1145
- }
1146
- },
1147
- {
1148
- "field": "photoinitiators.name",
1149
- "op": "=",
1150
- "value": "BAPO"
1151
- },
1152
- {
1153
- "field": "polymer_system",
1154
- "op": "=",
1155
- "value": "TEGDMA"
1156
- }
1157
- ],
1158
- "explore_field": null
1159
- },
1160
  "polymer_materials_R1_pos_000043": {
1161
  "query": "Find photocuring experiments using GelAGE with LAP as the photoinitiator under 405 nm irradiation.",
1162
  "domain": "polymer_materials",
@@ -2319,40 +2247,6 @@
2319
  ],
2320
  "explore_field": null
2321
  },
2322
- "polymer_materials_R1_pos_000090": {
2323
- "query": "Find photocuring experiments using BisGMA with EDB as the photoinitiator at 0.1 wt%.",
2324
- "domain": "polymer_materials",
2325
- "type": "reproduction",
2326
- "type_id": "R1",
2327
- "constraint_count": 3,
2328
- "has_numeric": true,
2329
- "has_negation": false,
2330
- "has_range": false,
2331
- "constraints": [
2332
- {
2333
- "field": "photoinitiators.loading",
2334
- "op": "=",
2335
- "value": "0.1 wt%",
2336
- "parsed": {
2337
- "kind": "point",
2338
- "number": 0.1,
2339
- "unit": "wt%",
2340
- "raw": "0.1 wt%"
2341
- }
2342
- },
2343
- {
2344
- "field": "photoinitiators.name",
2345
- "op": "=",
2346
- "value": "EDB"
2347
- },
2348
- {
2349
- "field": "polymer_system",
2350
- "op": "=",
2351
- "value": "BisGMA"
2352
- }
2353
- ],
2354
- "explore_field": null
2355
- },
2356
  "polymer_materials_R1_pos_000003": {
2357
  "query": "Find fabrication protocols using 5 wt% PEGNB with PEG4SH as the crosslinking agent.",
2358
  "domain": "polymer_materials",
@@ -3201,40 +3095,6 @@
3201
  ],
3202
  "explore_field": null
3203
  },
3204
- "polymer_materials_R1_pos_000098": {
3205
- "query": "Find photocuring experiments using TEGDMA with 0.50 wt% BAPO as the photoinitiator.",
3206
- "domain": "polymer_materials",
3207
- "type": "reproduction",
3208
- "type_id": "R1",
3209
- "constraint_count": 3,
3210
- "has_numeric": true,
3211
- "has_negation": false,
3212
- "has_range": false,
3213
- "constraints": [
3214
- {
3215
- "field": "photoinitiators.loading",
3216
- "op": "=",
3217
- "value": "0.50 wt%",
3218
- "parsed": {
3219
- "kind": "point",
3220
- "number": 0.5,
3221
- "unit": "wt%",
3222
- "raw": "0.50 wt%"
3223
- }
3224
- },
3225
- {
3226
- "field": "photoinitiators.name",
3227
- "op": "=",
3228
- "value": "BAPO"
3229
- },
3230
- {
3231
- "field": "polymer_system",
3232
- "op": "=",
3233
- "value": "TEGDMA"
3234
- }
3235
- ],
3236
- "explore_field": null
3237
- },
3238
  "polymer_materials_EC3_pos_000054": {
3239
  "query": "What polymer concentration is used for GelMA photocrosslinked with LAP at 0.05% w/v?",
3240
  "domain": "polymer_materials",
@@ -8394,40 +8254,6 @@
8394
  ],
8395
  "explore_field": null
8396
  },
8397
- "polymer_materials_R1_pos_000113": {
8398
- "query": "Find photocuring experiments using PMMA with TI as the photoinitiator at 0.15 wt%.",
8399
- "domain": "polymer_materials",
8400
- "type": "reproduction",
8401
- "type_id": "R1",
8402
- "constraint_count": 3,
8403
- "has_numeric": true,
8404
- "has_negation": false,
8405
- "has_range": false,
8406
- "constraints": [
8407
- {
8408
- "field": "photoinitiators.loading",
8409
- "op": "=",
8410
- "value": "0.15 wt%",
8411
- "parsed": {
8412
- "kind": "point",
8413
- "number": 0.15,
8414
- "unit": "wt%",
8415
- "raw": "0.15 wt%"
8416
- }
8417
- },
8418
- {
8419
- "field": "photoinitiators.name",
8420
- "op": "=",
8421
- "value": "TI"
8422
- },
8423
- {
8424
- "field": "polymer_system",
8425
- "op": "=",
8426
- "value": "PMMA"
8427
- }
8428
- ],
8429
- "explore_field": null
8430
- },
8431
  "polymer_materials_R1_pos_000048": {
8432
  "query": "Find photopolymerization experiments using PDHAA with Darocur 1173 as the photoinitiator under 320-400 nm irradiation.",
8433
  "domain": "polymer_materials",
@@ -8556,40 +8382,6 @@
8556
  ],
8557
  "explore_field": null
8558
  },
8559
- "polymer_materials_R1_pos_000092": {
8560
- "query": "Find photocuring experiments using TEGDMA with EDB as the photoinitiator at 0.1 wt%.",
8561
- "domain": "polymer_materials",
8562
- "type": "reproduction",
8563
- "type_id": "R1",
8564
- "constraint_count": 3,
8565
- "has_numeric": true,
8566
- "has_negation": false,
8567
- "has_range": false,
8568
- "constraints": [
8569
- {
8570
- "field": "photoinitiators.loading",
8571
- "op": "=",
8572
- "value": "0.1 wt%",
8573
- "parsed": {
8574
- "kind": "point",
8575
- "number": 0.1,
8576
- "unit": "wt%",
8577
- "raw": "0.1 wt%"
8578
- }
8579
- },
8580
- {
8581
- "field": "photoinitiators.name",
8582
- "op": "=",
8583
- "value": "EDB"
8584
- },
8585
- {
8586
- "field": "polymer_system",
8587
- "op": "=",
8588
- "value": "TEGDMA"
8589
- }
8590
- ],
8591
- "explore_field": null
8592
- },
8593
  "polymer_materials_R1_pos_000025": {
8594
  "query": "Find photocuring experiments using 20% w/v GelMA with LAP as the photoinitiator.",
8595
  "domain": "polymer_materials",
@@ -9352,4 +9144,4 @@
9352
  ],
9353
  "explore_field": null
9354
  }
9355
- }
 
154
  ],
155
  "explore_field": null
156
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
157
  "polymer_materials_R3_pos_000006": {
158
  "query": "Find photocuring experiments using HEMA with PEGDA as a crosslinking agent and TPO as the photoinitiator under 385-420 nm irradiation.",
159
  "domain": "polymer_materials",
 
1085
  ],
1086
  "explore_field": null
1087
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
1088
  "polymer_materials_R1_pos_000043": {
1089
  "query": "Find photocuring experiments using GelAGE with LAP as the photoinitiator under 405 nm irradiation.",
1090
  "domain": "polymer_materials",
 
2247
  ],
2248
  "explore_field": null
2249
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
2250
  "polymer_materials_R1_pos_000003": {
2251
  "query": "Find fabrication protocols using 5 wt% PEGNB with PEG4SH as the crosslinking agent.",
2252
  "domain": "polymer_materials",
 
3095
  ],
3096
  "explore_field": null
3097
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
3098
  "polymer_materials_EC3_pos_000054": {
3099
  "query": "What polymer concentration is used for GelMA photocrosslinked with LAP at 0.05% w/v?",
3100
  "domain": "polymer_materials",
 
8254
  ],
8255
  "explore_field": null
8256
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
8257
  "polymer_materials_R1_pos_000048": {
8258
  "query": "Find photopolymerization experiments using PDHAA with Darocur 1173 as the photoinitiator under 320-400 nm irradiation.",
8259
  "domain": "polymer_materials",
 
8382
  ],
8383
  "explore_field": null
8384
  },
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
 
8385
  "polymer_materials_R1_pos_000025": {
8386
  "query": "Find photocuring experiments using 20% w/v GelMA with LAP as the photoinitiator.",
8387
  "domain": "polymer_materials",
 
9144
  ],
9145
  "explore_field": null
9146
  }
9147
+ }