AI for Social Good: An Investigation of the Causal Relationship Between Environmental Regulations and Their Effects on Air Pollution in London, UK

arXiv cs.LG Papers
environmental air-pollution bayesian-deep-learning causal-inference london urban-health policy

Summary

This paper develops a Bayesian deep learning framework to estimate the causal effect of air pollution regulations on PM2.5 concentrations in London from 2010 to 2020, finding an average reduction of 1.88 μg/m³ (12.35%).

arXiv:2606.15257v1 Announce Type: new Abstract: Air pollution regulation is central to urban public health governance, but estimating its effects is difficult because policies are implemented non-randomly and pollution trajectories are shaped by meteorology, socioeconomic change, temporal trends, and overlapping interventions. This study develops an uncertainty-aware Bayesian deep learning framework to estimate the aggregate effect of air pollution regulations on PM$_{2.5}$ concentrations in London from 2010 to 2020. The framework integrates daily PM$_{2.5}$ observations from Inner London monitoring stations, meteorological covariates, annual socioeconomic indicators, month-of-year and day-of-week indicators, and daily regulation status data for 32 policy measures. A Bayesian LSTM captures temporal dependencies in environmental and socioeconomic covariates, Bayesian embedding layers represent temporal and regulation status inputs, and a regulation status prediction branch supports propensity score-based adjustment for non-random policy implementation. Regulatory effects are estimated by comparing observed PM$_{2.5}$ concentrations with counterfactual predictions under a hypothetical no-regulation scenario, with uncertainty summarized across repeated Bayesian training runs and bootstrap resampling. Results show that London's regulations were associated with an average PM$_{2.5}$ reduction of 1.88 $\mu$g/m$^3$, a relative reduction of 12.35%, with a 95% confidence interval of 1.64-2.12 $\mu$g/m$^3$. Estimated effects were limited before 2013, became clearer from 2013 to 2017, and were strongest in 2018 and 2019. The findings suggest that sustained and cumulative regulatory interventions contributed to measurable improvements in London's air quality. This study demonstrates how uncertainty-aware causal AI can support environmental accountability, public health protection, and evidence-based governance for environmental decision-making.
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# AI for Social Good: An Investigation of the Causal Relationship Between Environmental Regulations and Their Effects on Air Pollution in London, UK
Source: [https://arxiv.org/abs/2606.15257](https://arxiv.org/abs/2606.15257)
[View PDF](https://arxiv.org/pdf/2606.15257)

> Abstract:Air pollution regulation is central to urban public health governance, but estimating its effects is difficult because policies are implemented non\-randomly and pollution trajectories are shaped by meteorology, socioeconomic change, temporal trends, and overlapping interventions\. This study develops an uncertainty\-aware Bayesian deep learning framework to estimate the aggregate effect of air pollution regulations on PM$\_\{2\.5\}$ concentrations in London from 2010 to 2020\. The framework integrates daily PM$\_\{2\.5\}$ observations from Inner London monitoring stations, meteorological covariates, annual socioeconomic indicators, month\-of\-year and day\-of\-week indicators, and daily regulation status data for 32 policy measures\. A Bayesian LSTM captures temporal dependencies in environmental and socioeconomic covariates, Bayesian embedding layers represent temporal and regulation status inputs, and a regulation status prediction branch supports propensity score\-based adjustment for non\-random policy implementation\. Regulatory effects are estimated by comparing observed PM$\_\{2\.5\}$ concentrations with counterfactual predictions under a hypothetical no\-regulation scenario, with uncertainty summarized across repeated Bayesian training runs and bootstrap resampling\. Results show that London's regulations were associated with an average PM$\_\{2\.5\}$ reduction of 1\.88 $\\mu$g/m$^3$, a relative reduction of 12\.35%, with a 95% confidence interval of 1\.64\-2\.12 $\\mu$g/m$^3$\. Estimated effects were limited before 2013, became clearer from 2013 to 2017, and were strongest in 2018 and 2019\. The findings suggest that sustained and cumulative regulatory interventions contributed to measurable improvements in London's air quality\. This study demonstrates how uncertainty\-aware causal AI can support environmental accountability, public health protection, and evidence\-based governance for environmental decision\-making\.

## Submission history

From: Yang Han \[[view email](https://arxiv.org/show-email/4287d2ed/2606.15257)\] **\[v1\]**Sat, 13 Jun 2026 11:23:57 UTC \(1,283 KB\)

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