A fundamental task in causal inference is estimating the effect of a distribution shift in the treatment variable.We refer to this problem as shift-response function (SRF) estimation.Existing neural network methods for causal inference lack theoretical guarantees and practical implementations for SRF estimation.In this paper, we introduce Targeted Regularization for Exposure Shifts with Neural Networks (tresnet), a method to estimate SRFs with robustness and efficiency guarantees.Our contributions are twofold.First, we propose a targeted regularization loss for neural networks with theoretical properties that ensure double robustness and asymptotic efficiency specific to SRF estimation.Second, we extend targeted regularization to support loss functions from the exponential family to accommodate non-continuous outcome distributions (e.g., discrete counts).We conduct benchmark experiments demonstrating tresnet's broad applicability and competitiveness.We then apply our method to a key policy question in public health to estimate the causal effect of revising the US National Ambient Air Quality Standards (NAAQS) for PM 2.5 from 12 𝜇𝑔/𝑚 3 to 9 𝜇𝑔/𝑚 3 .This change has been recently proposed by the US Environmental Protection Agency (EPA).Our goal is to estimate the reduction in deaths that would result from this anticipated revision using data consisting of 68 million individuals across the U.S.

Here, we present a method for temporal modeling of the oviposition activity of Ae. aegypti mosquitoes based on a weighted generalised linear model (GLM) with explanatory environmental effects extracted from freely available remotely sensing (satellite) images. Our results show potential for operational applications. Experimental results are provided using field collected Ae. aegypti eggs count data in Córdoba, Argentina.