4.7 Article

Hypericum perforatum L. Regulates Glutathione Redox Stress and Normalizes Ggt1/Anpep Signaling to Alleviate OVX-Induced Kidney Dysfunction

Journal

FRONTIERS IN PHARMACOLOGY
Volume 12, Issue -, Pages -

Publisher

FRONTIERS MEDIA SA
DOI: 10.3389/fphar.2021.628651

Keywords

Hypericum perforatum L; menopause; Glutathione redox stress; proteomics; metabolomics

Funding

  1. Shaanxi Province Key Laboratory of New Drugs and Chinese Medicine Foundation Research
  2. Shaanxi Collaborative Innovation Center of Chinese Medicinal Resource Industrialization
  3. KeeCloud Biotech

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Research shows that Hypericum perforatum L. (HPL) plays a significant role in the treatment of menopause-induced kidney disease by maintaining cellular redox balance, promoting the efflux of toxic amino acids and metabolites, and facilitating the processing and recovery of antioxidative metabolites.
Menopause and associated renal complications are linked to systemic redox stress, and the causal factors remain unclear. As the role of Hypericum perforatum L. (HPL) in menopause-induced kidney disease therapy is still ambiguous, we aim to explore the effects of HPL on systemic redox stress under ovariectomy (OVX)-induced kidney dysfunction conditions. Here, using combined proteomic and metabolomic approaches, we constructed a multi-scaled HPL-disease-gene-metabolite network to generate a therapeutic big picture that indicated an important link between glutathione redox stress and kidney impairment. HPL exhibited the potential to maintain cellular redox homeostasis by inhibiting gamma-glutamyltransferase 1 (Ggt1) overexpression, along with promoting the efflux of accumulated toxic amino acids and their metabolites. Moreover, HPL restored alanyl-aminopeptidase (Anpep) expression and metabolite shifts, promoting antioxidative metabolite processing, and recovery. These findings provide a comprehensive description of OVX-induced glutathione redox stress at multiple levels and support HPL therapy as an effective modulator in renal tissues to locally influence the glutathione metabolism pathway and subsequent redox homeostasis.

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