Soybean-derived antihypertensive hydrolysates attenuate Ang II-induced renal damage by modulating MAPK and NF-κB signaling pathways.
Tianyuan SongYin-Yi DingTiantian ZhangQiaolin CaiYonghong HuQing GuZhenyu GuPublished in: Food & function (2024)
Hypertension-induced kidney injury is considered a vital consequence of long-term and uncontrolled hypertension, which is commonly associated with an excessive accumulation of angiotensin II (Ang II) from hyperactivated RAS. Antihypertensive peptides have a significant effect on blood pressure regulation, but few studies have focused on the ameliorative function of antihypertensive peptides on renal injury. This study explored the effects of soybean protein-derived hydrolysate (SPH) on SHR and Ang II-induced HK-2 cells. SPH significantly attenuated blood pressure and alleviated renal pathological injury in SHRs after oral gavage administration. According to the pathological results, the kidneys of SHRs showed inflammation and SPH attenuated inflammatory cell infiltration in the kidneys of SHRs. Immunohistochemical analysis further revealed that SPH inhibited MCP-1 expression and increased Nrf2 expression in the kidneys. An in vitro HK-2 cell model demonstrated that SPH exhibited optimal activity for reducing Ang II-induced inflammatory cytokines and ROS overproduction. Mechanistically, SPH was observed to regulate MAPK/JNK and NF-κB signaling pathways. These findings indicate that potent antihypertensive SPH significantly ameliorates hypertension-induced kidney damage.
Keyphrases
- blood pressure
- signaling pathway
- angiotensin ii
- oxidative stress
- high glucose
- diabetic rats
- hypertensive patients
- induced apoptosis
- pi k akt
- endothelial cells
- poor prognosis
- single cell
- cell death
- drug induced
- immune response
- epithelial mesenchymal transition
- angiotensin converting enzyme
- type diabetes
- cell therapy
- metabolic syndrome
- stem cells
- vascular smooth muscle cells
- toll like receptor
- long non coding rna
- nuclear factor
- adipose tissue
- mesenchymal stem cells
- weight gain
- skeletal muscle