The journal of sexual medicine · 2013
Mitochondrial impairment and oxidative stress in leukocytes after testosterone administration to female-to-male transsexuals.
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Victor Víctor M, Rocha Milagros, Bañuls Celia, Rovira-Llopis Susana, Gómez Marcelino, Hernández-Mijares Antonio
Аннотация
INTRODUCTION: Testosterone undecanoate (T) treatment is common in female-to-male transsexuals (FtMs) but can induce impairment of mitochondrial function and oxidative stress.
AIM: The effect of T treatment on the mitochondrial function and redox state of leukocytes of FtMs subjects was evaluated.
METHODS: This was an observational study conducted in a university hospital. Fifty-seven FtMs were treated with T (1,000 mg) for 12 weeks, after which anthropometric and metabolic parameters and mitochondrial function were evaluated.
MAIN OUTCOME MEASURES: Anthropometric and metabolic parameters were evaluated. Mitochondrial function was studied by assessing mitochondrial oxygen (O2) consumption, membrane potential, reactive oxygen species (ROS) production, glutathione levels (GSH), and the reduced glutathione/oxidized glutathione (GSH)/(GSSG) ratio in polymorphonuclear cells.
RESULTS: T treatment led to mitochondrial impairment in FtMs as a result of a decrease in mitochondria O2 consumption, the membrane potential, GSH levels, and the (GSH)/(GSSG) ratio and an increase in ROS production. Mitochondrial O2 consumption and membrane potential negatively correlated with T levels, which was further confirmed that the T treatment had induced mitochondrial dysfunction. T also produced a significant increase in total testosterone, free androgenic index, and atherogenic index of plasma, and a decrease in sex hormone-binding globulin and high-density lipoprotein cholesterol.
CONCLUSIONS: Treatment of FtMs with T can induce impairment of mitochondrial function and a state of oxidative stress. This effect should be taken into account in order to modulate possible comorbidities in these patients.
AIM: The effect of T treatment on the mitochondrial function and redox state of leukocytes of FtMs subjects was evaluated.
METHODS: This was an observational study conducted in a university hospital. Fifty-seven FtMs were treated with T (1,000 mg) for 12 weeks, after which anthropometric and metabolic parameters and mitochondrial function were evaluated.
MAIN OUTCOME MEASURES: Anthropometric and metabolic parameters were evaluated. Mitochondrial function was studied by assessing mitochondrial oxygen (O2) consumption, membrane potential, reactive oxygen species (ROS) production, glutathione levels (GSH), and the reduced glutathione/oxidized glutathione (GSH)/(GSSG) ratio in polymorphonuclear cells.
RESULTS: T treatment led to mitochondrial impairment in FtMs as a result of a decrease in mitochondria O2 consumption, the membrane potential, GSH levels, and the (GSH)/(GSSG) ratio and an increase in ROS production. Mitochondrial O2 consumption and membrane potential negatively correlated with T levels, which was further confirmed that the T treatment had induced mitochondrial dysfunction. T also produced a significant increase in total testosterone, free androgenic index, and atherogenic index of plasma, and a decrease in sex hormone-binding globulin and high-density lipoprotein cholesterol.
CONCLUSIONS: Treatment of FtMs with T can induce impairment of mitochondrial function and a state of oxidative stress. This effect should be taken into account in order to modulate possible comorbidities in these patients.