Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Table 1: Mean ( ±SEm) physiological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 2: Mean ( ± S.E.) heamatological parameters of Andaman local bucks exposed to walking stress at different weeks
Table 3: Correlation coefficients among the physiological and heamatological parameters of unstressed Andaman local bucks
Table 4: Correlation coefficients among the physiological and heamatological parameters of stressed Andaman local bucks
Figure 1: Effect of walking stress on antioxidants activity in goat bucks (* indicates p<0.05). TAC: Total antioxidant capacity (nmol µl-1), CAT: Catalase(nmol min-1 l-1) and GSH: Glutathione(nmol l-1). Gr 1: Unstressed animal group, Gr 2: Stressed animal group.
Figure 2: Effect of walking stress on superoxide dismutase activity in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
Figure 3: Effect of walking stress on malondialdehyde (MDA) production in goat bucks (* indicates p<0.05). Gr 1: Unstressed animal group, Gr 2: Stressed animal group
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