Michael A. Robert, Ph.D.
   Assistant Professor
   Department Mathematics
   Virginia Tech

  View my Google Scholar Citations page

    In Print

  1. M. Walker, M.A. Robert, L.C. Childs. 2021 The importance of density dependence in juvenile mosquito development and survival: a model-based investigation. Ecological Modeling 440: 109357. [LINK]

  2. E.M. Benitez, E.L. Estallo, M.G. Grech, M. Frias-Cespedes, W.R. Almiron, M.A. Robert, F. F. Ludueña-Almeida. 2021. Understanding the role of temporal variation of environmental variables in predicting Aedes aegypti oviposition activity in a temperate region of Argentina. Acta Tropica 105744. [LINK]

  3. E.L. Estallo, R. Sippy, A.M. Stewart-Ibarra, M.G. Grech, E.M. Benitez, F.F. Ludueña -Almeida, M. Ainete, M. Frías-Céspedes, M. Robert, M.M. Romero, W.R. Almirón. 2020. A decade of arbovirus emergence in the temperate southern cone of South America: dengue, Aedes aegypti and climate change dynamics in Córdoba, Argentina. Heliyon 6(9):e04858. [LINK]

  4. M.A. Robert, Anna M. Stewart-Ibarra, Elizabet L. Estallo. 2020. Climate change and viral emergence: Evidence from Aedes-borne arboviruses. Current Opinions in Virology 40:41-47 [LINK]

  5. S.A. Cash, M.A. Robert, M.D. Lorenzen, and F. Gould. 2020. The impact of local population genetic background on the spread of the selfish element Medea-I in red flour beetles. Ecology and Evolution 10(2):863-874. [LINK]

  6. M.A. Robert, D.T. Tinunin, E.M. Benitez, F.F. Ludueña-Almeida, M.M. Romero, A.M. Stewart-Ibarra, E.L. Estallo. 2019. Arbovirus emergence in the temperate city of Córdoba, Argentina, 2009-2018. Nature Scientific Data 6, 276. [LINK]

  7. M.A. Robert, R.C. Christofferson, P.D. Weber, H.J. Wearing. 2019 Temperature impacts on dengue emergence in the United States: investigating the role of seasonality and climate change. Epidemics 28, 100344 [LINK]

  8. M.A. Robert, R.C. Christofferson, N.J.B. Silva, C. Vasquez, C.N. Mores, H.J. Wearing. 2016. Modeling mosquito-borne disease spread in U.S. Urbanized Areas: The case of dengue in Miami. PLoS ONE 11(8):e0161365. [LINK]

  9. H.J. Wearing, M.A. Robert, R.C. Christofferson. 2016. Dengue and chikungunya: modelling the expansion of mosquito-borne viruses into naive populations. Parasitology 143: 860-873. [LINK]

  10. M.A. Robert, K. Okamoto, F. Gould, A.L. Lloyd. 2014. Anti-pathogen genes and the replacement of disease-vectoring mosquito populations: a model-based evaluation. Evolutionary Applications. doi: 10.1111/eva.12219 [LINK]

  11. K.W. Okamoto, M.A. Robert, F. Gould, A.L. Lloyd. 2014. Feasible introgression of an anti-pathogen transgene into an urban mosquito population without using gene-drive. PLoS Neglected Tropical Diseases 8(7):e2827. [LINK]

  12. K.W. Okamoto, M.A. Robert, A. L. Lloyd, F. Gould. 2013. A reduce and replace strategy for suppressing vector-borne diseases: insights from a stochastic, spatial model. PLoS ONE 8(12):e81860. [LINK]

  13. M.A. Robert, K. Okamoto, A. L. Lloyd, F. Gould. 2013. A reduce and replace strategy for suppressing vector-borne diseases: insights from a deterministic model. PLoS ONE 8(9):e73233. [LINK]

  14. L. Facchinelli, L. Valerio, J.M. Ramsey, F. Gould, R. Katz, G. Bond, M.A. Robert, A. L. Lloyd, A.A. James, L. Alphey, T.W. Scott. 2013. Field cage studies and progressive evaluation of genetically-engineered mosquitoes. PLoS Neglected Tropical Diseases 7(1):e2001. [LINK]

  15. M.A. Robert, M. Legros, L. Facchinelli, L. Valerio, J. M. Ramsey, T. W. Scott, F. Gould, A. L. Lloyd. 2012. Mathematical models as aids for design and interpretation of experiments: The case of transgenic mosquitoes. Journal of Medical Entomology 49(6): 1177-1188. [LINK]

Ph.D. Dissertation: Mathematical models of genetic strategies for controlling the dengue vector, Aedes aegypti. Submitted August, 2 2013. LINK