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Management of Callosobruchus chinensis L. (Coleoptera: Bruchidae) in Stored Chickpea Grains by using Entomopathogenic Fungi

Management of Callosobruchus chinensis L. (Coleoptera: Bruchidae) in Stored Chickpea Grains by using Entomopathogenic Fungi

Mohsin Iqbal1, Farid Asif Shaheen1*, Farah Naz2, Muhammad Usman Raja2, Muhammad Fiaz3 and Muhammad Nadeem1 

1Department of Entomology, PMAS-Arid Agriculture University Rawalpindi, Pakistan, 46300; 2Department of Plant Pathology, PMAS-Arid Agriculture University Rawalpindi, Pakistan, 46300; 3Faculty of Veterinary and Animal Sciences, PMAS, Arid Agriculture University Rawalpindi, Pakistan, 46300.

[email protected]  

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Figure 1

Modeling trend for mean number of eggs laid by pulse beetle in response to different concentrations of B. bassiana. 

Figure 2

Modeling trend for mean number of eggs laid by pulse beetle in response to different concentrations of M. anisopliae. 

Figure 3

Modeling trend for mean number of holes made by C. chinensis in response to different concentrations of B. bassiana. 

Figure 4

Modeling trend for mean number of holes made by C. chinensis in response to different concentrations of M. anisopliae. 

Figure 5

Modeling trend for emergence of F1 adults of pulse beetle in response to different concentrations of B. bassiana. 

Figure 6

Modeling trend for emergence of F1 adults of pulse beetle in response to different concentrations of M. anisopliae. 

Figure 7

Percent inhibition rate (Mean ± SE) of pulse beetle in stored chickpea treated with different concentrations of B. bassiana and M. anisopliae. 

Figure 8

Modeling trend of percent inhibition rate (Mean ± SE) of pulse beetle in stored chickpea treated with different concentrations of B. bassiana. 

Figure 9

Modeling trend of percent inhibition rate (Mean ± SE) of pulse beetle in stored chickpea treated with different concentrations of M. anisopliae. 

Figure 10

Modeling trend of days to 100% mortality of F1 adults (Mean ± SE) of pulse beetle in stored chickpeas treated with different concentrations of B. bassiana and M. anisopliae. 

Figure 11

Modeling trend of days to 100% mortality of F1 adults (Mean ± SE) of pulse beetle in stored chickpeas treated with different concentrations of B. bassiana. 

Figure 12

Modeling trend of days to 100% mortality of F1 adults (Mean ± SE) of pulse beetle in stored chickpeas treated with different concentrations of M. anisopliae. 

Figure 13

Percent weight loss (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of B. bassiana and M. anisopliae. 

Figure 14

Modeling trend of percent weight loss (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of B. bassiana. 

Figure 15

Modeling trend of percent weight loss (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of M. anisopliae. 

Figure 16

Percent damage (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of B. bassiana and M. anisopliae. 

Figure 17

Modeling trend of percent damage (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of B. bassiana. 

Figure 18

Modeling trend of percent damage (Mean ± SE) caused by pulse beetle in stored chickpeas treated with different concentrations of M. anisopliae. 

Pakistan Journal of Agricultural Research

September

Vol.37, Iss. 3, Pages 190-319

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