Table 2.
Number of chemical structures in Fig. | Inhibitor | Testing model | Activity IC50/EC50 (μmol/L or others) | Toxicity CC50 value of drugs in vitro assay (μmol/L or others) | Main phases of action | Viruses | Ref. |
---|---|---|---|---|---|---|---|
Small molecule inhibitors that mainly inhibit PECs adsorption. | |||||||
Figure 2 (1) | Phloroglucinol | In vitro | – | 374.4 ± 4.0 | Entry | PEDV | (Kwon et al. 2013) |
Figure 2 (2) | Eckol | In vitro | 22.5 ± 2.2 | 388.3 ± 2.6 | Entry | PEDV | (Kwon et al. 2013) |
Figure 2 (3) | 7-Phloroeckol | In vitro | 18.6 ± 2.3 | 446.2 ± 3.8 | Entry | PEDV | (Kwon et al. 2013) |
Figure 2 (4) | Phlorofucofuroeckol | In vitro | 10.8 ± 1.4 | 579.0 ± 4.3 | Entry, replication | PEDV | (Kwon et al. 2013) |
Figure 2 (5) | Dieckol | In vitro | 16.6 ± 3.0 | 490.6 ± 1.6 | Entry, replication | PEDV | (Kwon et al. 2013) |
Figure 2 (6) | Compound 6 | In vitro | – | < 10 | Attachment | PEDV | (Chen et al. 2021c) |
Figure 2 (7) | Compound 7 | In vitro | – | > 40 | Attachment | PEDV | (Chen et al. 2021c) |
Figure 2 (8) | Compound 8 | In vitro | – | > 60 | Attachment | PEDV | (Chen et al. 2021c) |
Figure 2 (9) | Levisrolide A | In vitro | – | > 100 | Attachment, entry, replication | PEDV | (Zeng et al. 2022b) |
Figure 2 (10) | Cepharanthine | In vitro and In vivo | 2.53 | 29.92 | Attachment, entry | PEDV | (Dong et al. 2022) |
In vitro | 0.2 | 10.98 | Attachment, replication | PEDV | (Leng et al. 2024) | ||
In vitro | – | 17 | Attachment, replication | PDCoV | (Sun et al. 2024c) | ||
In vitro | – | 16.18 | Entry | SADS-CoV | (Chen et al. 2022c) | ||
In vitro | 1.03 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (11) | Tetrandrine | In vitro | 3.50 | 24.78 | Attachment, entry | PEDV | (Dong et al. 2022) |
In vitro | – | 30.03 | Attachment, replication | PEDV | (Qian et al. 2024) | ||
In vitro | 0.44 | 11.71 | Attachment, replication | PEDV | (Leng et al. 2024) | ||
In vitro | 2.19 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (12) | Fangchinoline | In vitro | 6.69 | 30.19 | Attachment, entry | PEDV | (Dong et al. 2022) |
In vitro | 3.54 | 17 | Attachment, entry | PEDV | (Zhang et al. 2023a) | ||
In vitro | 0.67 | 37.49 | Replication | PEDV | (Zhang et al. 2023c) | ||
In vitro | 0.2 | 12.35 | Attachment, replication | PEDV | (Leng et al. 2024) | ||
In vitro | 2.23 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (13) | Berbamine | In vitro | 9.00 | 20 | Attachment, entry | PEDV | (Zhang et al. 2023a) |
In vitro | 0.5 | > 25 | Attachment, replication | PEDV | (Leng et al. 2024) | ||
In vitro | 5.84 | > 25 | Attachment, replication | PEDV | (Leng et al. 2024) | ||
Figure 2 (14) | (+)-Fangchinoline | In vitro | 4.68 | 16 | Attachment, entry | PEDV | (Zhang et al. 2023a) |
Figure 2 (15) | Isotetrandrine | In vitro | 1.67 | > 25 | Attachment, replication | PEDV | (Leng et al. 2024) |
In vitro | 3.67 | > 50 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (16) | Cycleanine | In vitro | 0.34 | > 12.5 | Attachment, replication | PEDV | (Leng et al. 2024) |
In vitro | 2.77 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (17) | Dauricine | In vitro | 1.7 | > 25 | Attachment, replication | PEDV | (Leng et al. 2024) |
In vitro | 0.84 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (18) | Daurisoline | In vitro | 0.82 | > 12.5 | Attachment, replication | PEDV | (Leng et al. 2024) |
In vitro | 2.8 | > 12.5 | Attachment, replication | SADS-CoV | (Leng et al. 2024) | ||
Figure 2 (19) | Niclosamide | In vitro | 0.246 | 25.29 | Entry | PEDV | (Wang et al. 2023g) |
Figure 2 (20) | Bafilomycin A1 | In vitro | – | > 1.0 | Entry | PEDV | (Wang et al. 2023g) |
Figure 2 (21) | Chloroquine | In vitro | – | > 25 | Entry | PEDV | (Wang et al. 2023g) |
Figure 2 (22) | Veratramine | In vitro | ≤ 5 | >60 | Entry, replication | PEDV | (Chen et al. 2024a) |
Figure 2 (23) | Matrine | In vitro | – | > 1.0 mg/mL | Entry, attachment, replication | PEDV | (Qiao et al. 2024) |
Figure 2 (24) | Benzoic acid | In vitro and In vivo | – | > 4 × 103 | Entry | PEDV | (Liu et al. 2024b) |
Figure 2 (25) | Tunicamycin | In vitro | 25.3 ng/mL | > 2 μg/mL | Attachment, entry | SADS-CoV | (Chen et al. 2023b) |
Small molecule inhibitors that regulate viral proteins or proteases to inhibit PECs replication. | |||||||
Figure 3 (26) | N3 | In vitro | – | – | Replication | PEDV | (Wang et al. 2017a) |
Figure 3 (27) | Compound 27 | In vitro | – | – | Replication | PEDV | (Wang et al. 2017a) |
Figure 3 (28) | Compound 28 | In vitro | – | – | Replication | PEDV | (Wang et al. 2017a) |
Figure 3 (29) | Compound 29 | In vitro | 37.8 | 533.8 | Replication | PEDV | (Shi et al. 2018) |
Figure 3 (30) | Compound 30 | In vitro | 23.4 | 522.3 | Replication | PEDV | (Shi et al. 2018) |
Figure 3 (31) | 3-(aminocarbonyl)-1-phenylpyridinium | In vitro | 0.1877 | 73.8 | Replication | PEDV | (Zhou et al. 2021) |
Figure 3 (32) | 2,3-dichloronaphthoquinone | In vitro | 6.765 | 21.79 | Replication | PEDV | (Zhou et al. 2021) |
Figure 3 (33) | GC376 | In vitro | 1.11 ± 1.13 | > 200 | Replication | PEDV | (Ye et al. 2020) |
Figure 3 (34) | Quercetin | In vitro | ≤ 3 | > 400 | Replication | PEDV | (Li et al. 2020d) |
In vitro | – | > 400 μg/mL | Replication | SADS-CoV | (Zheng et al. 2022) | ||
In vitro | – | > 600 | Attachment, replication | SADS-CoV | (Feng et al. 2024) | ||
Figure 3 (35) | Flavonol | In vitro | 20.37 | 463.8 | Replication | PEDV | (Liang et al. 2024) |
Figure 3 (36) | Chrysin | In vitro | 2.484 ± 0.59 μg/mL | 83.56 ± 2.12 μg/mL | Replication | PEDV | (Gong et al. 2023) |
Figure 3 (37) | Naringenin | In vitro | 4.505 ± 2.25 μg/mL | 61.86 ± 0.97 μg/mL | Replication | PEDV | (Gong et al. 2023) |
Figure 3 (38) | Wogonin | In vitro | – | > 475 | Replication | PEDV | (Wang et al. 2023d) |
Figure 3 (39) | Baicalein | In vitro | ≤ 11.2 | > 400 | Replication | PEDV | (Li et al. 2024c) |
In vitro | – | 758.7 μg/mL | Replication | PDCoV | (Liu et al. 2024a) | ||
Figure 3 (40) | Baicalin | In vitro | ≤ 13 | > 400 | Replication | PEDV | (Li et al. 2024c) |
Figure 3 (41) | Luteolin | In vitro | ≤ 68.5 | > 238 | Replication | PEDV | (Wang et al. 2024b) |
Figure 3 (42) | Tomatidine | In vitro | 3.447 | 45.68 | Replication | PEDV | (Wang et al. 2020) |
Figure 3 (43) | Pneumocandin B0, | In vitro | 3.476 | 43.00 | Replication | PEDV | (Wang et al. 2020) |
Figure 3 (44) | (-)-Epigallocatechin gallate | In vitro | 8.764 | 99.04 | Replication | PEDV | (Wang et al. 2020) |
Figure 3 (45) | Buddlejasaponin IVb | In vitro | 8.136 | 89.77 | Replication | PEDV | (Wang et al. 2020) |
In vitro and In vivo | 6.943 | 84.56 | Replication, release | PEDV | (Sun et al. 2022) | ||
Figure 3 (46) | Xanthohumol | In vitro | 7.51 | 57.04 ± 2.11 | Replication | PEDV | (Lin et al. 2021) |
Figure 3 (47) | Hypericin | In vitro | 5.90 ± 0.26 | 56.73 ± 9.4 | Replication | PEDV | (Zhang et al. 2021b) |
In vitro | – | 97.06 ± 9.4 | Replication | TGEV | (Zhang et al. 2021b) | ||
Figure 3 (48) | Octyl gallate (OG) | In vitro and In vivo | 242.15 | > 40 | Replication | PEDV | (Su et al. 2023) |
Figure 3 (49) | Compound 49 | In vitro | 7.5 ± 0.7 | > 20 | Replication | PEDV | (Cho et al. 2019) |
Figure 3 (50) | Compound 50 | In vivo | 8.0 ± 2.5 | > 20 | Replication | PEDV | (Cho et al. 2019) |
Figure 3 (51) | Polycarpine | In vivo | 5.68 ± 0.80 | 50.20 ± 1.19 | Replication | PEDV | (Zhang et al. 2024a) |
Figure 3 (52) | TMPyP4 | In vitro | – | > 60 | Replication | PEDV | (Li et al. 2023c) |
Figure 3 (53) | PDS | In vitro | – | > 60 | Replication | PEDV | (Li et al. 2023c) |
Figure 3 (54) | Braco-19 | In vitro | – | > 10 | Replication | PEDV | (Li et al. 2023c) |
Figure 3 (55) | Phen-DC3 | In vitro | – | > 60 | Replication | PEDV | (Li et al. 2023c) |
Figure 3 (56) | 6-thioguanine | In vivo | 13.7 ± 1.7 | – | Replication | PEDV | (Chu et al. 2018) |
Figure 3 (57) | ZINC12899676 | In vitro | – | > 10 | Replication | PEDV | (Wang et al. 2022c) |
Figure 3 (58) | Remdesivir | In vivo | – | > 10 | Replication | PDCoV | (Brown et al. 2019) |
In vitro | – | > 250 | Replication | PEDV | (Xie et al. 2021) | ||
In vitro | – | > 40 | Replication | SADS-CoV | (Zhou et al. 2023) | ||
Figure 3 (59) | β-D-N4-hydroxycytidine | In vitro | – | > 125 | Replication | PEDV | (Xie et al. 2021) |
Figure 3 (60) | Remdesivir nucleoside | In vitro | – | > 250 | Replication | PEDV | (Xie et al. 2021) |
Figure 3 (61) | Gossypol | In vitro | 0.99 | > 10 | Replication | PEDV | (Wang et al. 2022d) |
In vitro | 2.55 | > 10 | Replication | SADS-CoV | (Wang et al. 2022d) | ||
In vitro | 1.06 | > 5 | Replication | PDCoV | (Wang et al. 2022d) | ||
Figure 3 (62) | Molnupiravir | In vivo | 12.30 | > 96 | Replication | PEDV | (Huang et al. 2013) |
Figure 3 (63) | Tubercidin | In vitro | 0.2487 | 14.23 | Replication | PEDV | (Wang et al. 2024d) |
In vivo | – | 14.32 | Replication | SADS-CoV | (Wang et al. 2024d) | ||
Figure 3 (64) | Compound 64 | In vitro | – | > 20 | Replication | PEDV | (Yang et al. 2015a) |
Figure 3 (65) | Compound 65 | In vitro | – | 12.47 ± 0.97 | Replication | PEDV | (Yang et al. 2015b) |
Figure 3 (66) | Compound 66 | In vitro | – | 9.32 ± 1.19 | Replication | PEDV | (Yang et al. 2015b) |
Figure 3 (67) | Compound 67 | In vitro | – | 13.72 ± 1.35 | Replication | PEDV | (Yang et al. 2015b) |
Figure 3 (68) | Compound 68 | In vitro | – | 2.25 ± 0.11 | Replication | PEDV | (Yang et al. 2015b) |
Figure 3 (69) | Trichlormethiazide | In vitro | 8.754 mg/mL | > 0.094 mg/mL | Replication | PEDV | (Deejai et al. 2017) |
Figure 3 (70) | D- (+) biotin | In vitro | 0.925 mg/mL | > 0.094 mg/mL | Replication | PEDV | (Deejai et al. 2017) |
Figure 3 (71) | Glutathione reduced free acid | In vitro | 2.722 mg/mL | > 1.5 mg/mL | Replication | PEDV | (Deejai et al. 2017) |
Figure 3 (72) | Hyperoside | In vitro | – | > 20 | Replication | PEDV | (Su et al. 2021) |
In vitro | 2.588 μg/ml | 25.15 μg/ml | Replication | PEDV | (Wang et al. 2024a) | ||
Figure 3 (73) | Compound 73 | In vitro | – | > 100 | Replication | PDCoV | (Wang et al. 2022a) |
Figure 3 (74) | Compound 74 | In vitro | – | > 100 | Replication | PDCoV | (Wang et al. 2022a) |
Figure 3 (75) | Phloretin | In vivo | 65.4 ± 4.26 | 440.6 ± 4.2 | Replication | TGEV | (Duan et al. 2024b) |
Figure 3 (76) | Myricetin | In vivo | 31.19 | > 1000 | Replication | TGEV | (Fan et al. 2024) |
Small molecule inhibitors that regulate host factors to inhibit PECs replication. | |||||||
Figure 4 (77) | Glycyrrhizin | In vitro | – | >800 | Entry, replication | PEDV | (Huan et al. 2017) |
In vitro | – | >5 | Replication | PEDV | (Gao et al. 2020) | ||
Figure 4 (78) | Chem-80,048,685 | In vitro | 39.03 | 116.7 | Attachment, replication | PEDV | (Wang et al. 2023b) |
Figure 4 (79) | Ouabain | In vitro | – | > 10 nmol/L | Attachment | PEDV | (Xiong et al. 2023) |
In vitro | 0.147 ± 0.028 | > 10 | Replication | TGEV | (Yang et al. 2017) | ||
In vitro | – | > 0.2 | Replication | TGEV | (Yang et al. 2022a) | ||
Figure 4 (80) | PST2238 | In vitro | – | > 10 | Attachment | PEDV | (Xiong et al. 2023) |
Figure 4 (81) | Pemetrexed acts | In vitro and In vivo | – | > 256 | Replication | PEDV | (Zhang et al. 2024b) |
Figure 4 (82) | SP2509 | In vitro | 0.919 | 4.763 | Replication | PEDV | (Zhao et al. 2024) |
Figure 4 (83) | Triacetyl resveratrol | In vitro | 42.5 | > 200 | Replication | PEDV | (Wang et al. 2022e) |
Figure 4 (84) | Andrographolide | In vitro and In vivo | – | > 50 | Replication | PEDV | (He et al. 2024) |
Figure 4 (85) | PA-824 | In vitro and In vivo | 18.4 | 233.2 | Replication | PEDV | (Li et al. 2024b) |
Figure 4 (86) | NAD+ | In vitro | 17.63 | 184.3 | Replication | PEDV | (Li et al. 2024b) |
Figure 4 (87) | Lovastatin | In vitro | 19.67 | 115.2 | Replication | PEDV | (Li et al. 2024b) |
Figure 4 (88) | Hyodeoxycholic acid | In vitro | 18.22 | 174.45 | Replication | PEDV | (Li et al. 2024b) |
Figure 4 (89) | Rapamycin | In vitro | – | > 0.1 | Replication | PEDV | (Ko et al. 2017) |
Figure 4 (90) | Homoharringtonine | In vivo | 0.112 | 5.582 | Replication | PEDV | (Dong et al. 2018) |
In vitro and In vivo | – | > 1.0 | Replication | PEDV | (Li and Wang 2020) | ||
Figure 4 (91) | Hydroxychloroquine | In vitro and In vivo | – | > 100 | Replication | PEDV | (Li and Wang 2020) |
Figure 4 (92) | Cinchonine | In vitro | – | > 200 | Replication | PEDV | (Ren et al. 2022a) |
Figure 4 (93) | Erastin | In vitro | – | > 8 | Replication | PEDV | (Zhang et al. 2023b) |
Figure 4 (94) | (1S,3R)-RSL3 | In vitro | – | > 6 | Replication | PEDV | (Li et al. 2023b) |
Figure 4 (95) | Quercetin7-rhamnoside | In vitro | 0.014 μg/mL | > 100 μg/mL | Replication | PEDV | (Song et al. 2011) |
Figure 4 (96) | Emodin | In vitro | 2.1 | > 100 | Replication | PEDV | (Li et al. 2021) |
In vitro | – | > 12.5 μg/mL | Attachment, replication | SADS-CoV | (Zheng et al. 2022) | ||
Figure 4 (97) | Gossypol-Acetic acid | In vitro | 2.9 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (98) | Gynostemma Extract | In vitro | 2.7 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (99) | Oridonin | In vitro | 3.0 | 35 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (100) | Licochalcone A | In vitro | 4.0 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (101) | Amphotericin B | In vitro | 2.91 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (102) | Demethylzeylasteral | In vitro | 2.37 | 38.6 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (103) | Tubeimoside I | In vitro | 4.21 | 74.8 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (104) | Harmine hydrochloride | In vitro | 1.33 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (105) | Betulonic acid | In vitro | < 1.25 | 61.9 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (106) | Ursonic acid | In vitro | 2.13 | 41.0 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (107) | 3′-Hydroxypterostilbene | In vitro | 4.29 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (108) | Tannic acid | In vitro | 4.37 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (109) | (E)-Cardamonin | In vitro | 2.15 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (110) | Harmine | In vitro | 1.96 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (111) | Esculetin | In vitro | 5.97 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (112) | Lithocholic acid | In vitro | 2.37 | > 100 | Replication | PEDV | (Li et al. 2021) |
In vitro | – | > 25 | Replication | PDCoV | (Kong et al. 2021) | ||
Figure 4 (113) | Nordihydroguaiaretic acid | In vitro | 5.00 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (114) | Efonidipine | In vitro | 5.58 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (115) | Tabersonine hydrochloride | In vitro | 4.30 | 82.6 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (116) | Protoporphyrin IX | In vitro | < 1.25 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (117) | Proanthocyanidins | In vitro | 2.19 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (118) | Caffeic Acid Phenethyl Ester | In vitro | 1.74 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (119) | Grape seed Extract | In vitro | 2.42 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (120) | 7-Ethylcamptothecin | In vitro | < 1.25 | > 100 | Replication | PEDV | (Li et al. 2021) |
Figure 4 (121) | Puerarin | In vivo | – | – | Replication | PEDV | (Wu et al. 2020) |
Figure 4 (122) | Magnolol | In vitro | 28.21 | 57.28 | Replication | PEDV | (Wang et al. 2023e) |
Figure 4 (123) | Ergosterol peroxide | In vitro | – | 327.6 | Entry, replication, release | PEDV | (Liu et al. 2022) |
In vitro and In vivo | – | > 248 | Attachment, entry, replication | PDCoV | (Duan et al. 2021a) | ||
In vitro and In vivo | – | > 248 | Attachment, entry, replication | PDCoV | (Duan et al. 2021b) | ||
In vivo | – | – | Replication | PDCoV | (Duan et al. 2021c) | ||
Figure 4 (124) | Monolaurin | In vivo | – | – | Replication | PEDV | (Zhang et al. 2021a) |
Figure 4 (125) | Ellagic acid | In vitro | – | > 80 | Replication | PEDV | (Song et al. 2024) |
Figure 4 (126) | Compound 126 | In vitro and In vivo | 1.89 ± 0.25 | > 100 | Replication | PEDV | (Chen et al. 2021a) |
Figure 4 (127) | Compound 127 | In vitro | 3.26 ± 0.23 | > 100 | Replication | PEDV | (Chen et al. 2021a) |
Figure 4 (128) | Compound 128 | In vitro and In vivo | 0.72 ± 0.11 | > 100 | Replication | PEDV | (Chen et al. 2021a) |
Figure 4 (129) | Palmitic acid | In vitro | – | > 50 μmol/L | Replication | PEDV | (Mao et al. 2022) |
In vitro | – | > 200 | Replication | PEDV | (Suo et al. 2023) | ||
Figure 4 (130) | Lauric acid | In vitro | – | > 200 | Replication | PEDV | (Suo et al. 2023) |
In vitro | – | > 200 | Replication | TGEV | (Suo et al. 2023) | ||
Figure 4 (131) | Sodium butyrate | In vitro | – | > 200 | Replication | PDCoV | (Suo et al. 2023) |
In vitro | – | > 1000 | Replication | PEDV | (He et al. 2023) | ||
Figure 4 (132) | Docosahexaenoic acid | In vitro | – | > 200 | Replication | PEDV | (Suo et al. 2023) |
In vitro | – | > 200 | Replication | TGEV | (Suo et al. 2023) | ||
In vitro | – | > 200 | Replication | PDCoV | (Suo et al. 2023) | ||
Figure 4 (133) | Eicosapentaenoic acid | In vitro | – | > 200 | Replication | PEDV | (Suo et al. 2023) |
In vitro | – | > 200 | Replication | TGEV | (Suo et al. 2023) | ||
In vitro | – | > 200 | Replication | PDCoV | (Suo et al. 2023) | ||
Figure 4 (134) | Linoleic acid | In vitro | – | > 50 μg/mL | Replication | PEDV | (Yang et al. 2023b) |
Figure 4 (135) | Ribavirin | In vitro | – | > 200 | Replication | PEDV | (Kim and Lee 2013) |
Figure 4 (136) | 2-Deoxy-D-glucose | In vivo | – | > 1.0 × 104 | Replication | PEDV | (Wang et al. 2014) |
Figure 4 (137) | A77 1726 | In vitro | – | > 200 | Replication | PEDV | (Li et al. 2020b) |
Figure 4 (138) | Formic acid | In vitro | – | 1.5869 mg/mL | Replication | PEDV | (Gómez-García et al. 2021) |
Figure 4 (139) | Ursonic acid | In vitro | – | > 32 | Replication | PEDV | (Yang et al. 2024) |
Figure 4 (140) | Panax notoginseng saponins | In vitro | – | > 512 μg/mL | Replication | PEDV | (Hu et al. 2024) |
Figure 4 (141) | Salinomycin | In vitro | – | < 20 | Entry, replication | PEDV | (Yuan et al. 2021) |
Figure 4 (142) | Nicotinamide | In vitro | – | > 2.5 × 103 | Replication | PEDV | (Li et al. 2023a) |
In vitro | – | > 500 | Replication | PDCoV | (Li et al. 2023a) | ||
Figure 4 (143) | Epigallocatechin-3-gallate | In vitro | 14.95 | > 100 | Attachment, entry, replication, assembly | PEDV | (Huan et al. 2021) |
Figure 4 (144) | Ivermectin | In vitro | 7.05 | 25.34 | Replication, release | PEDV | (Wang et al. 2023h) |
In vitro | 4.63 | > 10 | Replication | PEDV | (Xu et al. 2024a) | ||
Figure 2 (13) | Berbamine | In vitro and In vivo | 177.1 | 1.789 | Replication | PEDV | (Xiang et al. 2024) |
Figure 4 (145) | Avermectin B1 | In vitro | 8.98 | 219.3 | Replication, release | PEDV | (Wang et al. 2023h) |
Figure 4 (146) | Doramectin | In vitro | 6.26 | 130.4 | Replication, release | PEDV | (Wang et al. 2023h) |
Figure 4 (147) | Chenodeoxycholic acid | In vitro | – | > 200 | Replication | PDCoV | (Kong et al. 2021) |
Figure 4 (148) | Methyl-β-cyclodextrin | In vitro | – | > 3000 | Attachment, entry | PDCoV | (Jeon and Lee 2018) |
Figure 4 (149) | 25-hydroxycholesterol | In vitro | – | > 25 | Entry | PDCoV | (Ke et al. 2021) |
In vitro | – | > 100 | Attachment, entry | PDCoV | (Zhang et al. 2022a) | ||
Figure 4 (150) | 17-AAG | In vitro | 0.1426 | 36.34 | Replication | PDCoV | (Zhao et al. 2022) |
Figure 4 (151) | VER-82576 | In vitro | 1.106 | 41.58 | Replication | PDCoV | (Zhao et al. 2022) |
Figure 4 (152) | Diammonium glycyrrhizinate | In vitro | – | > 1250 μg/mL | Entry, replication | PDCoV | (Zhai et al. 2019) |
Figure 4 (153) | Chlorogenic acid | In vitro | 69 ± 11 | 5598 ± 229 | Replication, release | PDCoV | (Shi et al. 2024) |
Figure 4 (154) | Compound 154 | In vitro | 17.34 ± 7.20 | > 800 | Replication | PDCoV | (Sun et al. 2024a) |
Figure 4 (155) | Selenomethionine | In vitro | – | > 16 | Replication | PDCoV | (Ren et al. 2022c) |
Figure 4 (156) | Curcumin | In vitro | 5.979 | 408 | Replication | PDCoV | (Wang et al. 2023f) |
In vitro | – | 77.96 ± 1.005 | Attachment, entry | TGEV | (Li et al. 2020d) | ||
Figure 4 (157) | Niacin | In vitro | – | > 1 mg/mL | Replication | PDCoV | (Chen et al. 2022a) |
Figure 4 (158) | Lycorine | In vitro | – | > 10 | Replication | PDCoV | (Fang et al. 2021) |
Figure 4 (159) | Resveratrol | In vitro | – | > 10 | Replication | PDCoV | (Fang et al. 2021) |
Figure 4 (160) | Digitoxin | In vitro | 0.373 ± 0.032 | > 10 | Replication | TGEV | (Yang et al. 2017) |
Figure 4 (161) | Oleandrin | In vitro | 0.166 ± 0.008 | > 10 | Replication | TGEV | (Yang et al. 2017) |
Figure 4 (162) | AG1024 | In vitro | – | > 50 | Replication | TGEV | (Yang et al. 2022a). |
Figure 4 (163) | All-trans retinoic acid | In vivo | – | > 100 | Replication | TGEV | (Pu et al. 2022a) |
In vivo | – | > 100 | Replication | TGEV | (Pu et al. 2022a) | ||
Figure 4 (164) | Polygonum Cillinerve polysaccharide | In vitro | – | > 500 | Replication | TGEV | (Pan et al. 2021) |
In vivo | – | > 62.5 μg/mL | Replication | TGEV | (Duan et al. 2024a) | ||
Figure 4 (165) | (+)-Catechin | In vitro | – | > 640 | Replication | TGEV | (Liang et al. 2015) |
Figure 4 (166) | Eugenol | In vitro | – | > 800 | Replication | TGEV | (Wang et al. 2022b) |
Figure 4 (167) | L-leucine | In vitro | – | > 1.0 × 104 | Replication | TGEV | (Du et al. 2021) |
Figure 4 (168) | Tyrphostin A9 | In vitro | – | > 6.0 | Replication | TGEV | (Dong et al. 2020). |
Figure 4 (169) | Phlorizin | In vitro | – | > 200 | Replication | TGEV | (Yang et al. 2020c) |
Figure 4 (170) | 2-bromopalmitate | In vitro | – | > 10 | Replication | SADS-CoV | (Luo et al. 2021) |
Figure 4 (171) | CP-724714 | In vitro | 0.91 ± 0.18 | > 20 | Replication | SADS-CoV | (Zhou et al. 2023) |
In vitro | 2.13 ± 0.6 | > 20 | Replication | PEDV | (Zhou et al. 2023) | ||
In vitro | 0.84 ± 0.22 | > 80 | Replication | PDCoV | (Zhou et al. 2023) | ||
In vitro | 2.53 ± 0.24 | > 80 | Replication | TGEV | (Zhou et al. 2023) | ||
Figure 4 (172) | Lonafarnib | In vitro | 2.378 | > 64 | Replication | SADS-CoV | (Zhou et al. 2023) |
Figure 4 (173) | Sorafenib | In vitro | 0.4628 | > 64 | Replication | SADS-CoV | (Zhou et al. 2023) |
Figure 4 (174) | Gemcitabine | In vitro | – | 88.48 | Replication | SADS-CoV | (Chen et al. 2022c) |
Figure 4 (175) | Mycophenolate mofetil | In vitro | – | > 100 | Replication | SADS-CoV | (Chen et al. 2022c) |
Figure 4 (176) | Mycophenolic acid | In vitro | – | > 100 | Replication | SADS-CoV | (Chen et al. 2022c) |
Figure 4 (177) | Methylene blue | In vitro | – | > 25 | Entry, replication | SADS-CoV | (Chen et al. 2022c) |
Figure 4 (178) | LJ001 | In vitro | – | 146.4 | Replication | PDCoV | (Zhang et al. 2020) |
In vitro | – | 146.4 | Replication | TGEV | (Zhang et al. 2020) | ||
Figure 4 (179) | Melatonin | In vitro | – | > 3 × 103 | Replication | PEDV, PDCoV, TGEV | (Zhai et al. 2021) |
Figure 4 (180) | Indole | In vitro | – | > 1 × 103 | Replication | (Zhai et al. 2021) | |
Figure 4 (181) | Tryptamine | In vitro | – | > 5 × 102 | Replication | (Zhai et al. 2021) | |
Figure 4 (182) | L- tryptophan | In vitro | – | > 3 × 103 | Replication | (Zhai et al. 2021) | |
Figure 4 (183) | Rifampicin | In vitro | – | > 200 | Replication | PEDV | (Wei et al. 2024) |
In vitro | – | > 200 | Replication | SADS-CoV | (Wei et al. 2024) |
Note: “–”, no data provided.