Effect of mouse sex on pharmacological investigations

Excerpt:


J. Pharm. Pharmacogn. Res., vol. 8, no. 6, pp. 569-579, November-December 2020. Original Article Effect of sex differences in antinociceptive, antipyretic, hypoglycemia, hepatoprotective and antidiarrheal activities in mice model [Efecto de las diferencias sexuales en las actividades antinociceptiva, antipirética, hipoglucemia, hepatoprotectora y antidiarreica en modelo de ratones] Irin Karim#, Roni Roy#, Md Rafiul Hoque, Sazzad … Continue reading Effect of mouse sex on pharmacological investigations

J. Pharm. Pharmacogn. Res., vol. 8, no. 6, pp. 569-579, November-December 2020.

Original Article

Effect of sex differences in antinociceptive, antipyretic, hypoglycemia, hepatoprotective and antidiarrheal activities in mice model

[Efecto de las diferencias sexuales en las actividades antinociceptiva, antipirética, hipoglucemia, hepatoprotectora y antidiarreica en modelo de ratones]

Irin Karim#, Roni Roy#, Md Rafiul Hoque, Sazzad Hosen, Tanaya Bhowmik, Israt Jahan Liya, Afroza Akter, Mohammad Anwarul Basher

Department of Pharmacy, Noakhali Science and Technology University, Sonapur, Noakhali-3814, Bangladesh.
#These two authors contributed equally.

Abstract

Context: The use of animal models is a longstanding practice in biological research. Among different models, the mouse is the most widely used and accepted model. In designing the mouse model, a male mouse is generally preferred over a female to avoid the effect of changing hormonal state in females. However, it is not known whether mouse sex affects all experiments.

Aims: To determine the effect of mouse sex on pharmacological responses in antinociceptive, antipyretic, hypoglycemia, hepatoprotective and antidiarrheal experiments.

Methods: Antinociceptive study was performed by three different experiments. An antipyretic experiment was performed by yeast induced hyperthermia test. The effect on hypoglycemic response was assessed by an oral glucose tolerance test. The effect on the hepatoprotective study was evaluated by carbon tetrachloride-induced liver damage. The antidiarrheal study was conducted by a castor oil-induced diarrhea test.

Results: Antinociceptive studies demonstrated mixed effects. Hot plate test showed significant differences; the licking test showed variation only in the late phase, while no significant variation was observed. In the antipyretic experiment, female mice showed higher body temperature in both control and standard that varied significantly with male mice. Hypoglycemia and hepatoprotective tests did not show significant variation between sexes; however, liver enzymes levels were found higher in males while the percentage liver weight was higher in females. In the antidiarrheal test, the male mouse was observed to have higher responses than the female.

Conclusions: Antinociceptive and antipyretic investigations should be performed separately on both male and female mice. On the other hand, hypoglycemic, hepatoprotective and antidiarrheal tests can be conducted on any mouse sex, and findings on particular sex can be extrapolated to the opposite sex.

Keywords: drug discovery; sex dimorphism; Swiss albino mice.

Resumen

Contexto: El uso de modelos animales es una práctica de larga data en la investigación biológica. Entre los diferentes modelos, el ratón es el modelo más utilizado y aceptado. Al diseñar el modelo de ratón, generalmente se prefiere un ratón macho a una hembra para evitar el efecto del cambio de estado hormonal en las hembras. Sin embargo, no se sabe si el sexo del ratón afecta a todos los experimentos.

Objetivos: Determinar el efecto del sexo del ratón sobre las respuestas farmacológicas en experimentos antinociceptivos, antipiréticos, hipoglucémicos, hepatoprotectores y antidiarreicos.

Métodos: Se realizaron experimentos para demostrar efectos anti-nociceptivo (tres experimentos diferentes), antipirético (hipertermia inducida por levaduras), hipoglucémico (prueba de tolerancia a la glucosa oral), hepatoprotector (daño hepático inducido por tetracloruro de carbono) y antidiarreico (diarrea inducida por aceite de ricino).

Resultados: Los estudios antinociceptivos demostraron efectos mixtos. La prueba de la placa caliente mostró diferencias significativas; la prueba de lamido mostró variación solo en la fase tardía, mientras que no se observó variación significativa. En el experimento antipirético, las hembras mostraron una temperatura corporal más alta tanto en el control como en el estándar que varió significativamente con los ratones machos. Las pruebas de hipoglucemia y hepatoprotección no mostraron variación significativa entre sexos; sin embargo, los niveles de enzimas hepáticas se encontraron más altos en los machos mientras que el porcentaje de peso del hígado fue más alto en las hembras. En la prueba antidiarreica, se observó que el ratón macho tenía respuestas más altas que la hembra.

Conclusiones: Las investigaciones antinociceptivas y antipiréticas debían realizarse por separado en ratones machos y hembras. Por otro lado, las pruebas hipoglucémicas, hepatoprotectoras y antidiarreicas podrían realizarse en cualquier sexo de ratón, y los hallazgos sobre un sexo particular se pueden extrapolar al sexo opuesto.

Palabras Clave: dimorfismo sexual; investigación en medicamento; ratones albinos suizos.

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Citation Format: Karim I, Roy R, Hoque MR, Hosen S, Bhowmik T, Liya IJ, Akter A, Basher MA (2020) Effect of sex differences in antinociceptive, antipyretic, hypoglycemia, hepatoprotective and antidiarrheal activities in mice model. J Pharm Pharmacogn Res 8(6): 569–579.
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