Chinese Journal of Clinical Pharmacology and Therapeutics ›› 2026, Vol. 31 ›› Issue (9): 1173-1181.doi: 10.12092/j.issn.1009-2501.2026.09.003
Jie LI(
), Zhanli WANG, Yao HUANG, Xia JI(
)
Received:2025-08-06
Revised:2025-11-20
Online:2026-09-26
Published:2026-10-08
Contact:
Xia JI
E-mail:ljfckz@126.com;jx.1120@163.com
CLC Number:
Jie LI, Zhanli WANG, Yao HUANG, Xia JI. Study on the mechanism of astragaloside IV in pelvic floor dysfunction rats by regulating the miR-340-5p and SMAD2 expression[J]. Chinese Journal of Clinical Pharmacology and Therapeutics, 2026, 31(9): 1173-1181.
| Group | Bladder volume (mL) | Intravesical pressure (mmHg) | Leak point pressure (mmHg) |
| Control | 1.24±0.13 | 97.54±10.23 | 135.27±14.82 |
| PFD | 0.36±0.05b | 52.36±5.71b | 84.61±8.69b |
| ASIV-L | 0.54±0.06e | 63.32±6.75e | 100.25±10.54e |
| ASIV-M | 0.76±0.09eh | 76.55±8.02eh | 113.62±11.76eh |
| ASIV-H | 1.13±0.12ehk | 91.36±9.51ehk | 132.07±13.85ehk |
| ASIV-H+miR-NC | 1.09±0.12 | 90.24±9.38 | 130.43±13.62 |
| ASIV-H+miR-340-5p mimics | 0.62±0.07enq | 69.42±7.53enq | 105.38±10.97enq |
Table 1 Comparisons of urodynamic parameters among different groups of rats ($ \overline{x}\pm s $, n=12)
| Group | Bladder volume (mL) | Intravesical pressure (mmHg) | Leak point pressure (mmHg) |
| Control | 1.24±0.13 | 97.54±10.23 | 135.27±14.82 |
| PFD | 0.36±0.05b | 52.36±5.71b | 84.61±8.69b |
| ASIV-L | 0.54±0.06e | 63.32±6.75e | 100.25±10.54e |
| ASIV-M | 0.76±0.09eh | 76.55±8.02eh | 113.62±11.76eh |
| ASIV-H | 1.13±0.12ehk | 91.36±9.51ehk | 132.07±13.85ehk |
| ASIV-H+miR-NC | 1.09±0.12 | 90.24±9.38 | 130.43±13.62 |
| ASIV-H+miR-340-5p mimics | 0.62±0.07enq | 69.42±7.53enq | 105.38±10.97enq |
| Group | Vaginal resting pressure (mmHg) | Vaginal squeeze pressure (mmHg) | Bladder neck mobility (cm) | Urethral rotation angle (°) |
| Control | 57.36±5.96 | 69.85±7.26 | 0.65±0.08 | 30.15±3.26 |
| PFD | 30.12±3.35b | 32.01±3.39b | 1.34±0.14b | 51.72±5.39b |
| ASIV-L | 36.21±3.84e | 40.55±4.27e | 1.12±0.12e | 43.59±4.56e |
| ASIV-M | 44.35±4.73eh | 50.28±5.24eh | 0.91±0.10eh | 36.82±3.92eh |
| ASIV-H | 53.67±5.58ehk | 61.37±6.43ehk | 0.72±0.08ehk | 30.94±3.23ehk |
| ASIV-H+miR-NC | 51.09±5.41 | 60.14±6.28 | 0.73±0.08 | 31.25±3.31 |
| ASIV-H+miR-340-5p mimics | 40.26±4.32enq | 46.73±4.89enq | 1.06±0.12enq | 40.23±4.26enq |
Table 2 Comparisons of pelvic floor function-related parameters among different groups of rats ($ \overline{x}\pm s $, n=12)
| Group | Vaginal resting pressure (mmHg) | Vaginal squeeze pressure (mmHg) | Bladder neck mobility (cm) | Urethral rotation angle (°) |
| Control | 57.36±5.96 | 69.85±7.26 | 0.65±0.08 | 30.15±3.26 |
| PFD | 30.12±3.35b | 32.01±3.39b | 1.34±0.14b | 51.72±5.39b |
| ASIV-L | 36.21±3.84e | 40.55±4.27e | 1.12±0.12e | 43.59±4.56e |
| ASIV-M | 44.35±4.73eh | 50.28±5.24eh | 0.91±0.10eh | 36.82±3.92eh |
| ASIV-H | 53.67±5.58ehk | 61.37±6.43ehk | 0.72±0.08ehk | 30.94±3.23ehk |
| ASIV-H+miR-NC | 51.09±5.41 | 60.14±6.28 | 0.73±0.08 | 31.25±3.31 |
| ASIV-H+miR-340-5p mimics | 40.26±4.32enq | 46.73±4.89enq | 1.06±0.12enq | 40.23±4.26enq |
| Group | Mean myoelectric potential of Type Ⅰ muscle fibers (μV) | Mean myoelectric potential of Type Ⅱ muscle fibers (μV) |
| Control | 17.36±1.85 | 19.48±2.54 |
| PFD | 8.04±0.86b | 10.13±1.15b |
| ASIV-L | 10.24±1.13e | 12.39±1.43e |
| ASIV-M | 13.57±1.46eh | 15.96±1.76eh |
| ASIV-H | 16.83±1.77ehk | 18.71±2.14ehk |
| ASIV-H+miR-NC | 16.72±1.71 | 18.53±1.97 |
| ASIV-H+miR-340-5p mimics | 12.65±1.39enq | 13.52±1.57enq |
Table 3 Comparisons of surface electromyographic signal levels of pelvic floor muscles among different groups of rats ($ \overline{x}\pm s $, n=12)
| Group | Mean myoelectric potential of Type Ⅰ muscle fibers (μV) | Mean myoelectric potential of Type Ⅱ muscle fibers (μV) |
| Control | 17.36±1.85 | 19.48±2.54 |
| PFD | 8.04±0.86b | 10.13±1.15b |
| ASIV-L | 10.24±1.13e | 12.39±1.43e |
| ASIV-M | 13.57±1.46eh | 15.96±1.76eh |
| ASIV-H | 16.83±1.77ehk | 18.71±2.14ehk |
| ASIV-H+miR-NC | 16.72±1.71 | 18.53±1.97 |
| ASIV-H+miR-340-5p mimics | 12.65±1.39enq | 13.52±1.57enq |
Fig.1 Histopathological changes of levator ani muscle tissue (HE staining, ×200) bP<0.05, compared with control group; eP<0.05, compared with PFD group; hP<0.05, compared with ASIV-L group; kP<0.05, compared with ASIV-M group; nP<0.05, compared with ASIV-H group; qP<0.05, compared with ASIV-H+miR-NC group.
Fig.2 Fibrotic changes in levator ani muscle tissue (Masson staining, ×200) bP<0.05, compared with control group; eP<0.05, compared with PFD group; hP<0.05, compared with ASIV-L group; kP<0.05, compared with ASIV-M group; nP<0.05, compared with ASIV-H group; qP<0.05, compared with ASIV-H+miR-NC group.
Fig.3 Relative expression levels of Collagen Ⅰ and Elastin in levator ani muscle tissue (Immunohistochemistry, ×400) bP<0.05, compared with control group; eP<0.05, compared with PFD group; hP<0.05, compared with ASIV-L group; kP<0.05, compared with ASIV-M group; nP<0.05, compared with ASIV-H group; qP<0.05, compared with ASIV-H+miR-NC group.
Fig.4 Relative expression levels of miR-340-5p and SMAD2 in pelvic floor tissue of different groups of rats ($ \overline{x}\pm s $, n=6) bP<0.05, compared with control group; eP<0.05, compared with PFD group; hP<0.05, compared with ASIV-L group; kP<0.05, compared with ASIV-M group; nP<0.05, compared with ASIV-H group; qP<0.05, compared with ASIV-H+miR-NC group.
Fig.5 Verification of the targeting relationship between miR-340-5p and SMAD2 A: binding site of miR-340-5p on SMAD2; B: comparisions of luciferase activity. bP<0.05, compared with miR-NC+SMAD2-WT group.
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