Black soldier fly larvae (Hermetia illucens L.) are proficient decomposers of organic matter. We compared experiments with local substrates containing: domestic residues (DR), and brewery wastes (BW) in pure form, or mixed with in two different proportions (BW70 or BW30), and two sequential diets in which larvae were fed first DR and then BW (DR/BW) or vice versa (BW/DR). The effects of the diets on life cycle parameters for mass production of H. illucens larvae were evaluated using general linear mixed models, ANOVA and Kruskal-Wallis. The pure DR diet significantly prolonged the developmental period (47.8 days), although the pupal stage was shorter in larvae fed on this diet (13.8 days). Larval survival was similar between treatments (over 85%), but pupal survival tended to be higher in the mixed diets (over 96%). Larval weights differed significantly between treatments, with mixed diets promoting greater weight gains than pure and sequential diets. Larvae fed a DR/BW diet gained more weight than those fed a BW/DR diet. The highest mean larval weights (0.23 g) were observed in the mixed diet BW70, followed by the sequential diet DR/BW (0.22 g). Mixed diet BW70 also resulted in larger wings and bodies in both sexes. Sequential diet BW/DR and pure diet DR resulted in the smallest adult sizes. Sex ratios varied, favouring male emergence (1.8 M:0.2 F) in pure diet DR and in both sequential mixed diets (1.7 M:0.3 F and 1.3 M:0.7 F, respectively). This study highlights the importance of higher total protein plus carbohydrate concentrations in diets for optimal larval rearing, favouring mixed diets BW70. Carbohydrate-rich substrates should be provided earlier in the cycle to benefit larval and adult performance. Locally available waste vegetable or fruit peels, brewery waste, and spent yerba mate proved to be viable substrates for larval rearing, providing economic and environmental benefits for H. illucens rearing.
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| All Time | Past 365 days | Past 30 Days | |
|---|---|---|---|
| Abstract Views | 929 | 199 | 36 |
| Full Text Views | 22 | 5 | 0 |
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Black soldier fly larvae (Hermetia illucens L.) are proficient decomposers of organic matter. We compared experiments with local substrates containing: domestic residues (DR), and brewery wastes (BW) in pure form, or mixed with in two different proportions (BW70 or BW30), and two sequential diets in which larvae were fed first DR and then BW (DR/BW) or vice versa (BW/DR). The effects of the diets on life cycle parameters for mass production of H. illucens larvae were evaluated using general linear mixed models, ANOVA and Kruskal-Wallis. The pure DR diet significantly prolonged the developmental period (47.8 days), although the pupal stage was shorter in larvae fed on this diet (13.8 days). Larval survival was similar between treatments (over 85%), but pupal survival tended to be higher in the mixed diets (over 96%). Larval weights differed significantly between treatments, with mixed diets promoting greater weight gains than pure and sequential diets. Larvae fed a DR/BW diet gained more weight than those fed a BW/DR diet. The highest mean larval weights (0.23 g) were observed in the mixed diet BW70, followed by the sequential diet DR/BW (0.22 g). Mixed diet BW70 also resulted in larger wings and bodies in both sexes. Sequential diet BW/DR and pure diet DR resulted in the smallest adult sizes. Sex ratios varied, favouring male emergence (1.8 M:0.2 F) in pure diet DR and in both sequential mixed diets (1.7 M:0.3 F and 1.3 M:0.7 F, respectively). This study highlights the importance of higher total protein plus carbohydrate concentrations in diets for optimal larval rearing, favouring mixed diets BW70. Carbohydrate-rich substrates should be provided earlier in the cycle to benefit larval and adult performance. Locally available waste vegetable or fruit peels, brewery waste, and spent yerba mate proved to be viable substrates for larval rearing, providing economic and environmental benefits for H. illucens rearing.
| All Time | Past 365 days | Past 30 Days | |
|---|---|---|---|
| Abstract Views | 929 | 199 | 36 |
| Full Text Views | 22 | 5 | 0 |
| PDF Views & Downloads | 58 | 13 | 0 |