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. 2018 Oct-Dec;14(4):466–472. doi: 10.4183/aeb.2018.466

Table 3.

Comparison of hormone levels between non-diabetic addicted (case) and non-diabetic Non-addicted (control) male and female rats. Data from seven animals in each group

Hormones Groups
Male, (mean ± SEM) Female, (mean ± SEM)
Non-diabetic Addicted (Case) Non-diabetic Non-addicted (Control) P-Value Non-diabetic Addicted (Case) Non-diabetic Non-addicted (Control) P-Value
T3 (ng/dL) 1.337±0.111 0.872±0.044 0.002* 1.561±0.132 1.334±0.041 0.128
T4 (μg/dL) 29.191±2.928 29.557±1.834 0.917 34.220±2.432 32.714±6.625 0.835
17OH-Progesterone (ng/mL) 0.217±0.022 0.251±0.034 0.421 0.734±0.072 1.417±0.091 < 0.001*
Testosterone (ng/mL) 0.261±0.034 0.351±0.037 0.104 0.617±0.041 0.242±0.029 < 0.001*
DHEA-S (ng/mL) 0. 480±0.081 0.107±0.034 0.001* 0.224±0.077 0.248±0.044 0.790

The Table 3 illustrates that in male non-diabetic addicted rats, the mean level of T3 had a significant increase in comparison with control group (P=0.002). However, the mean level of DHEA-S showed a significant decrease in non-diabetic addicted compared to non-diabetic non-addicted (P=0.001). Comparison of female non-diabetic non-addicted with non-diabetic addicted group, the mean levels of 17-hydroxyprogesterone and testosterone were significantly decreased and increased, respectively (P<0.001 for both comparisons). *Significance at 0.05 levels.