Paul J. Huxley

This paper compares local and global thermal performance data for Anopheles stephensi, showing local data predict higher habitat suitability in Ethiopian urban environments.

This study shows that humidity modifies the thermal performance of key fitness traits in Anopheles stephensi, altering population fitness projections compared to temperature-only models.

The paper introduces MIReVTD, a standard for reporting vector trait data to improve data reuse and analysis consistency in vector-borne disease research.

This paper introduces the LINEX Thermal Performance Curve, a novel non-linear model for asymmetric thermal responses, and demonstrates its superior fit for biological traits using simulations and experimental data.

The paper shows that relative humidity systematically shifts the temperature dependence of population growth in Anopheles stephensi, a malaria vector.

The paper introduces bayesTPC, an R package for Bayesian inference of thermal performance curves, aiming to improve uncertainty quantification in thermal physiology.

This study compares discrete- and continuous-time models for predicting temperature-dependent maximum population growth rate in Aedes aegypti, showing discrepancies influenced by resource availability and juvenile survival characterization.