Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga

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Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga. / Otieno, Magara H J; Ayieko, Monica A; Niassy, Saliou; Salifu, Daisy; Abdelmutalab, Azrag G A; Fathiya, Khamis M; Subramanian, Sevgan; Fiaboe, Komi K M; Roos, Nanna; Ekesi, Sunday; Tanga, Chrysantus M.

I: P L o S One, Bind 14, Nr. 9, e0222941, 2019.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Otieno, MHJ, Ayieko, MA, Niassy, S, Salifu, D, Abdelmutalab, AGA, Fathiya, KM, Subramanian, S, Fiaboe, KKM, Roos, N, Ekesi, S & Tanga, CM 2019, 'Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga', P L o S One, bind 14, nr. 9, e0222941. https://doi.org/10.1371/journal.pone.0222941

APA

Otieno, M. H. J., Ayieko, M. A., Niassy, S., Salifu, D., Abdelmutalab, A. G. A., Fathiya, K. M., Subramanian, S., Fiaboe, K. K. M., Roos, N., Ekesi, S., & Tanga, C. M. (2019). Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga. P L o S One, 14(9), [e0222941]. https://doi.org/10.1371/journal.pone.0222941

Vancouver

Otieno MHJ, Ayieko MA, Niassy S, Salifu D, Abdelmutalab AGA, Fathiya KM o.a. Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga. P L o S One. 2019;14(9). e0222941. https://doi.org/10.1371/journal.pone.0222941

Author

Otieno, Magara H J ; Ayieko, Monica A ; Niassy, Saliou ; Salifu, Daisy ; Abdelmutalab, Azrag G A ; Fathiya, Khamis M ; Subramanian, Sevgan ; Fiaboe, Komi K M ; Roos, Nanna ; Ekesi, Sunday ; Tanga, Chrysantus M. / Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga. I: P L o S One. 2019 ; Bind 14, Nr. 9.

Bibtex

@article{f556be6381744654aefc46cc662a8ffb,
title = "Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga",
abstract = "Scapsipedus icipe Hugel and Tanga (Orthoptera: Gryllidae) is a newly described edible cricket species. Although, there is substantial interest in mass production of S. icipe for human food and animal feed, no information exists on the impact of temperature on their bionomics. Temperature-dependent development, survival, reproductive and life table parameters of S. icipe was generated and integrated into advanced Insect Life Cycle Modeling software to describe relative S. icipe population increase and spatial spread based on nine constant temperature conditions. We examined model predictions and implications for S. icipe potential distribution in Africa under current and future climate. These regions where entomophagy is widely practiced have distinctly different climates. Our results showed that S. icipe eggs were unable to hatch at 10 and 40°C, while emerged nymphs failed to complete development at 15°C. The developmental time of S. icipe was observed to decrease with increased in temperature. The lowest developmental threshold temperatures estimated using linear regressions was 14.3, 12.67 and 19.12°C and the thermal constants for development were 185.2, 1111.1- and 40.7-degree days (DD) for egg, nymph and pre-adult stages, respectively. The highest total fecundity (3416 individuals/female/generation), intrinsic rate of natural increase (0.075 days), net reproductive rate (1330.8 female/female/generation) and shortest doubling time (9.2 days) was recorded at 30°C. The regions predicted to be suitable by the model suggest that S. icipe is tolerant to a wider range of climatic conditions. Our findings provide for the first-time important information on the impact of temperature on the biology, establishment and spread of S. icipe across the Africa continent. The prospect of edible S. icipe production to become a new sector in food and feed industry is discussed.",
keywords = "Faculty of Science, Edible insects, Cricket species, Scapsipedus icipe, Bionomics, Temperature, Mass production",
author = "Otieno, {Magara H J} and Ayieko, {Monica A} and Saliou Niassy and Daisy Salifu and Abdelmutalab, {Azrag G A} and Fathiya, {Khamis M} and Sevgan Subramanian and Fiaboe, {Komi K M} and Nanna Roos and Sunday Ekesi and Tanga, {Chrysantus M}",
note = "CURIS 2019 NEXS 312",
year = "2019",
doi = "10.1371/journal.pone.0222941",
language = "English",
volume = "14",
journal = "PLoS ONE",
issn = "1932-6203",
publisher = "Public Library of Science",
number = "9",

}

RIS

TY - JOUR

T1 - Integrating temperature-dependent life table data into Insect Life Cycle Model for predicting the potential distribution of Scapsipedus icipe Hugel & Tanga

AU - Otieno, Magara H J

AU - Ayieko, Monica A

AU - Niassy, Saliou

AU - Salifu, Daisy

AU - Abdelmutalab, Azrag G A

AU - Fathiya, Khamis M

AU - Subramanian, Sevgan

AU - Fiaboe, Komi K M

AU - Roos, Nanna

AU - Ekesi, Sunday

AU - Tanga, Chrysantus M

N1 - CURIS 2019 NEXS 312

PY - 2019

Y1 - 2019

N2 - Scapsipedus icipe Hugel and Tanga (Orthoptera: Gryllidae) is a newly described edible cricket species. Although, there is substantial interest in mass production of S. icipe for human food and animal feed, no information exists on the impact of temperature on their bionomics. Temperature-dependent development, survival, reproductive and life table parameters of S. icipe was generated and integrated into advanced Insect Life Cycle Modeling software to describe relative S. icipe population increase and spatial spread based on nine constant temperature conditions. We examined model predictions and implications for S. icipe potential distribution in Africa under current and future climate. These regions where entomophagy is widely practiced have distinctly different climates. Our results showed that S. icipe eggs were unable to hatch at 10 and 40°C, while emerged nymphs failed to complete development at 15°C. The developmental time of S. icipe was observed to decrease with increased in temperature. The lowest developmental threshold temperatures estimated using linear regressions was 14.3, 12.67 and 19.12°C and the thermal constants for development were 185.2, 1111.1- and 40.7-degree days (DD) for egg, nymph and pre-adult stages, respectively. The highest total fecundity (3416 individuals/female/generation), intrinsic rate of natural increase (0.075 days), net reproductive rate (1330.8 female/female/generation) and shortest doubling time (9.2 days) was recorded at 30°C. The regions predicted to be suitable by the model suggest that S. icipe is tolerant to a wider range of climatic conditions. Our findings provide for the first-time important information on the impact of temperature on the biology, establishment and spread of S. icipe across the Africa continent. The prospect of edible S. icipe production to become a new sector in food and feed industry is discussed.

AB - Scapsipedus icipe Hugel and Tanga (Orthoptera: Gryllidae) is a newly described edible cricket species. Although, there is substantial interest in mass production of S. icipe for human food and animal feed, no information exists on the impact of temperature on their bionomics. Temperature-dependent development, survival, reproductive and life table parameters of S. icipe was generated and integrated into advanced Insect Life Cycle Modeling software to describe relative S. icipe population increase and spatial spread based on nine constant temperature conditions. We examined model predictions and implications for S. icipe potential distribution in Africa under current and future climate. These regions where entomophagy is widely practiced have distinctly different climates. Our results showed that S. icipe eggs were unable to hatch at 10 and 40°C, while emerged nymphs failed to complete development at 15°C. The developmental time of S. icipe was observed to decrease with increased in temperature. The lowest developmental threshold temperatures estimated using linear regressions was 14.3, 12.67 and 19.12°C and the thermal constants for development were 185.2, 1111.1- and 40.7-degree days (DD) for egg, nymph and pre-adult stages, respectively. The highest total fecundity (3416 individuals/female/generation), intrinsic rate of natural increase (0.075 days), net reproductive rate (1330.8 female/female/generation) and shortest doubling time (9.2 days) was recorded at 30°C. The regions predicted to be suitable by the model suggest that S. icipe is tolerant to a wider range of climatic conditions. Our findings provide for the first-time important information on the impact of temperature on the biology, establishment and spread of S. icipe across the Africa continent. The prospect of edible S. icipe production to become a new sector in food and feed industry is discussed.

KW - Faculty of Science

KW - Edible insects

KW - Cricket species

KW - Scapsipedus icipe

KW - Bionomics

KW - Temperature

KW - Mass production

U2 - 10.1371/journal.pone.0222941

DO - 10.1371/journal.pone.0222941

M3 - Journal article

C2 - 31553778

VL - 14

JO - PLoS ONE

JF - PLoS ONE

SN - 1932-6203

IS - 9

M1 - e0222941

ER -

ID: 227986023