A Computational Re-evaluation of Spatial Trials for Zoonotic Tuberculosis Control: Model Misspecification, Diagnostic Miss-classification, and the Illusion of Wildlife Culling Efficacy
Torgerson, P. R.
Show abstract
This paper evaluates the computational and epidemiological robustness of the historical Randomised Badger Culling Trial (RBCT), the foundational empirical experiment guiding zoonotic tuberculosis (Mycobacterium bovis) control policies. Wildlife reservoir management frequently relies on the RBCTs trade-off hypothesis, which posits that reductions in cattle herd infections are offset by a perturbation effect driven by disrupted host dispersal. Using generalized linear mixed models with a generalized Poisson error distribution to explicitly address historical data overdispersion, this study contrasts traditional parametric inference against exact cluster-constrained permutation tests across distinct operational definitions of disease incidence. Non-parametric diagnostics reveal that previously reported treatment and perturbation effects are entirely statistical artifacts. Inside culling zones, parametric significance fails to withstand exact permutation verification due to extreme data leverage in localized cluster blocks. Crucially, when diagnostic misclassification biases are eliminated by analysing total reactor datasets, all apparent culling effects disappear, and information criteria overwhelmingly favour nested null architectures. Unconfirmed reactors likely represent true biological infections missed by low-sensitivity post-mortem macro-necropsy, proving that host removal tracks observation noise rather than genuine zoonotic transmission pathways. Finally, empirical scaling conducted in this study identifies a novel, mathematical saturation effect arising from unmodelled disease recurrence rather than an ecological reality. Current zoonotic tuberculosis intervention frameworks are built upon structurally miss-specified statistical models, resulting in misdirected, large-scale veterinary interventions that cause substantial ecological and economic harm while failing to provide genuine public health, animal health, or disease control benefits.
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