1. The Dual Functions of Andrographolide in the Epstein–Barr Virus-Positive Head-and-Neck Cancer Cells: The Inhibition of Lytic Reactivation of the Epstein–Barr Virus and the Induction of Cell Death
    Chukkris Heawchaiyaphum et al, 2023, International Journal of Molecular Sciences CrossRef
  2. Exploring the mechanism of andrographolide in the treatment of gastric cancer through network pharmacology and molecular docking
    Ravi Prakash Yadav et al, 2022, Scientific Reports CrossRef
  3. Andrographolide sensitizes Hep-2 human laryngeal cancer cells to carboplatin-induced apoptosis by increasing reactive oxygen species levels
    Wenjing Mao et al, 2019, Anti-Cancer Drugs CrossRef
  4. Andrographolide induces apoptosis in human osteosarcoma cells via the ROS/JNK pathway
    Shengdong Wang et al, 2020, International Journal of Oncology CrossRef
  5. Natural products targeting signaling pathways associated with regulated cell death in gastric cancer: Recent advances and perspectives
    Qichao Hu et al, 2023, Phytotherapy Research CrossRef
  6. In silico and in vitro studies on the anti-cancer activity of andrographolide targeting survivin in human breast cancer stem cells
    Septelia Inawati Wanandi et al, 2020, PLOS ONE CrossRef
  7. Andrographolide Inhibits Epstein–Barr Virus Lytic Reactivation in EBV-Positive Cancer Cell Lines through the Modulation of Epigenetic-Related Proteins
    Praphatson Malat et al, 2022, Molecules CrossRef
  8. Andrographolide elevates tumor necrosis factor-related apoptosis-inducing ligand lethality through reactive oxygen species accumulation and gasdermin E cleavage in breast cancer cells
    Yueyuan Wang et al, 2022, Medical Oncology CrossRef
  9. GSK-3 inhibitors enhance TRAIL-mediated apoptosis in human gastric adenocarcinoma cells
    Yi-Ying Wu et al, 2018, PLOS ONE CrossRef
  10. Advances and challenges in developing andrographolide and its analogues as cancer therapeutic agents
    Hon Liong Soo et al, 2019, Drug Discovery Today CrossRef
  11. Interplay between inflammation and cancer
    Rekha Khandia et al, 2020, Inflammatory Disorders, Part A CrossRef
  12. siRNA Targeting Mcl-1 Potentiates the Anticancer Activity of Andrographolide Nanosuspensions via Apoptosis in Breast Cancer Cells
    Supusson Pengnam et al, 2022, Pharmaceutics CrossRef
  13. Andrographolide nanophytosomes exhibit enhanced cellular delivery and pro-apoptotic activities in HepG2 liver cancer cells
    Thikryat Neamatallah et al, 2023, Drug Delivery CrossRef
  14. Mechanisms of Natural Extracts of Andrographis paniculata That Target Lipid-Dependent Cancer Pathways: A View from the Signaling Pathway
    Ruth Naomi et al, 2022, International Journal of Molecular Sciences CrossRef
  15. Benzyl Isothiocyanate Induces Apoptosis via Reactive Oxygen Species-Initiated Mitochondrial Dysfunction and DR4 and DR5 Death Receptor Activation in Gastric Adenocarcinoma Cells
    Khin Wah Wah Han et al, 2019, Biomolecules CrossRef
  16. Andrographis overcomes 5-fluorouracil-associated chemoresistance through inhibition of DKK1 in colorectal cancer
    Yinghui Zhao et al, 2021, Carcinogenesis CrossRef
  17. Bioassay-Guided extraction of andrographis paniculata for intervention of in-vitro prostate cancer progression in metabolic syndrome environment
    Mohamad Khairul Hafiz Idris et al, 2022, DARU Journal of Pharmaceutical Sciences CrossRef
  18. Proteomics Analysis of Andrographolide-Induced Apoptosis via the Regulation of Tumor Suppressor p53 Proteolysis in Cervical Cancer-Derived Human Papillomavirus 16-Positive Cell Lines
    Pariyakorn Udomwan et al, 2021, International Journal of Molecular Sciences CrossRef
  19. The Molecular Roles and Clinical Implications of Non-Coding RNAs in Gastric Cancer
    Yanping Yue et al, 2021, Frontiers in Cell and Developmental Biology CrossRef
  20. Andrographolide: Synthetic Methods and Biological Activities
    Meng Hao et al, 2020, Mini-Reviews in Medicinal Chemistry CrossRef
  21. Andrographolide in atherosclerosis: integrating network pharmacology and in vitro pharmacological evaluation
    Shuai Shi et al, 2022, Bioscience Reports CrossRef