Analytical Framework for Forest Gap Gradient Effects on Tropical Species Abundance
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Developed the analytical framework using generalised linear models to assess abundance changes of tropical species across forest gap gradients.
Below are selected case studies (academic + applied) with a data-science focus.
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Developed the analytical framework using generalised linear models to assess abundance changes of tropical species across forest gap gradients.
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Developed and implemented a holistic Bayesian framework integrating microclimate, mechanistic physiology, biogeochemical processes, and population dynamics to identify causal pathways from climate change to survival and recruitment.
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Revealed ecosystem cascades and biogeochemical pathways in tropical systems using Bayesian hierarchical modelling to quantify direct and indirect effects in complex ecological networks.
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Developed an interactive JavaScript tool using hypergeometric probability to optimise resource distribution in competitive deck building.
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Applied hierarchical Bayesian models with satellite-derived predictors to identify climate-driven population changes in rainforest birds across space and time.
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Developed Bayesian hierarchical models incorporating detection probability to forecast population viability and support elevated conservation status for imperilled species.
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Developed a high-throughput spatial forecasting workflow of community turnover under climate change, optimising computational performance for multi-species forecasting across elevational gradients.
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Used time-series GLMs and interactive visualisation (Shiny app) to nominate 14 bird species for elevated protection under national and international priority lists.
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Applied ensemble machine learning to convert presence-only niche models into abundance predictions, combining big-data wrangling, advanced analytics, and multi-algorithm ensembles.