Acute restraint stress triggers progesterone withdrawal and endometrial breakdown and shedding through corticosterone stimulation in mouse menstrual-like model
article
OA: closed
CC0
⤵ 4 in-corpus citations
Abstract
Stress impacts the reproductive axis at the level of the hypothalamus and the pituitary gland, which exert an effect on the ovary. Menstruation is regulated by the hypothalamic-pituitary-ovary (HPO) axis. However, the role of stress in menstruation remains unclear. The objective of this study was to explore the role of stress in endometrial breakdown and shedding, using the pseudopregnant mouse menstrual-like model. Female mice were mated with vasectomized males and labeled day 0.5, upon observation of a vaginal seminal plug. On day 3.5, decidualization was induced in pseudopregnant mice using arachis oil. On day 5.5, pseudopregnant mice with artificial decidualization were placed in restraint tubes for 3 h. The findings indicated that acute restraint stress resulted in the disintegration of the endometrium. While corticosterone concentration in the serum increased significantly due to restraint stress, follicle-stimulating hormone (FSH), luteinizing hormone (LH) and progesterone (P4) levels in the serum decreased significantly. An endometrial histology examination indicated that progesterone implants may rescue P4 decline caused by acute stress and block endometrium breakdown and shedding. In addition, mice were treated with metyrapone, an inhibitor of corticosterone synthesis, 1 h prior to being subjected to restraint stress. Interestingly, metyrapone not only inhibited stress-induced endometrium breakdown and shedding, but also prevented stress-induced reduction of P4, LH and FSH. Furthermore, real-time PCR and western blot showed that mRNA and protein expression of CYP11A1 (cytochrome P450, family 11, subfamily A, polypeptide 1) and steroidogenic acute regulatory protein (StAR), the two rate-limiting enzymes for progesterone synthesis in the ovary, decreased following acute stress. But metyrapone prevented the reduction of StAR expression induced by restraint stress. Overall, this study revealed that acute stress results in an increase in corticosterone, which may inhibit LH and FSH release in the serum and CYP11A1 and StAR expression in the ovary, which finally leads to the breakdown and shedding of the endometrium. These experimental findings, based on the mouse model, may enable further understanding of the effects of stress on menstruation regulation and determine the potential factors affecting stress-associated menstrual disorders.
My notes (saved in your browser only)
Citation neighborhood (sparse)
Too few in-corpus citations on either side for a chart; here are the lists.
Cites (2)
- Chronic gynecological conditions reported by US women: findings from the National Health Interview Survey, 1984 to 1992. 1996
- The nuclear factor- B pathway is involved in matrix metalloproteinase-9 expression in RU486-induced endometrium breakdown in mice 2012
Cited by (4)
- Mouse model of menstruation: An indispensable tool to investigate the mechanisms of menstruation and gynaecological diseases (Review) 2020
- Hypoxia: involved but not essential for endometrial breakdown in mouse menstural-like model 2020
- Modelling menstruation in the common mouse: a narrative review 2025
- Mechanisms of Scarless Repair at Time of Menstruation: Insights From Mouse Models 2022
References (49)
- Chronic gynecological conditions reported by US women: findings from the National Health Interview Survey, 1984 to 1992. via openalex
- The nuclear factor- B pathway is involved in matrix metalloproteinase-9 expression in RU486-induced endometrium breakdown in mice via openalex
- W1894268419 via openalex
- W1984363372 via openalex
- W1986004767 via openalex
- W1989407400 via openalex
- W1992612654 via openalex
- W2013928018 via openalex
- W2027128457 via openalex
- W2027131602 via openalex
- W2038220184 via openalex
- W2041139772 via openalex
- W2062401068 via openalex
- W2064543052 via openalex
- W2072009364 via openalex
- W2073496706 via openalex
- W2076812625 via openalex
- W2079145580 via openalex
- W2083292152 via openalex
- W2116629441 via openalex
- W2119686503 via openalex
- W2125772235 via openalex
- W2129541316 via openalex
- W2130462906 via openalex
- W2136091506 via openalex
- W2138802001 via openalex
- W2139308416 via openalex
- W2144932655 via openalex
- W2155023828 via openalex
- W2157492091 via openalex
- W2163693116 via openalex
- W2163762391 via openalex
- W2170547299 via openalex
- W2186664117 via openalex
- W2255476758 via openalex
- W2259216925 via openalex
- W2343831581 via openalex
- W2402035339 via openalex
- W2416641010 via openalex
- W2494324491 via openalex
- W2502239662 via openalex
- W2546915776 via openalex
- W2547256937 via openalex
- W2581665392 via openalex
- W2607394025 via openalex
- W2617223589 via openalex
- W15442420 via openalex
- W2783821159 via openalex
- W1521908242 via openalex
Cited by (4)
- Modelling menstruation in the common mouse: a narrative review 2025
- Mechanisms of Scarless Repair at Time of Menstruation: Insights From Mouse Models 2022
- Mouse model of menstruation: An indispensable tool to investigate the mechanisms of menstruation and gynaecological diseases (Review) 2020
- Hypoxia: involved but not essential for endometrial breakdown in mouse menstural-like model 2020
Source provenance
- openalex
- last seen: 2026-06-04T00:00:01.174412+00:00
License: CC0
· commercial use OK