Projects Funded for Daria (Dasha) Ageikina

2022-2023

The Effects of Sociopolitical Pressure on Wildfire Suppression Efforts in the U.S.

Pierre Mérel and Daria (Dasha) Ageikina

Abstract

Proposed Objectives of the Project:
The first objective of this project was to investigate empirically the link between the media coverage of wildfires and the suppression efforts by U.S. agencies in charge of wildfire management. The second objective was to see if there is potential political influence on these efforts. We measure the suppression effort by the number of firefighting employees involved, the aircraft use, and the strategy choice. The media coverage is a function of the number of citations of specific wildfires in the news and other forms of media. We measure the potential political influence by the relative power of political leaders at different levels and their incentives to affect the results of upcoming elections. If at least one of the effects is statistically different from zero, the third objective will be to estimate the welfare effects of arguably suboptimal suppression efforts.

Summary of Results:
Over the past year, we have focused on the first objective. We have conducted an Instrumental Variables analysis of the effect of the News Publication about wildfires on the subsequent resources used in their suppression. Using U.S. data for the period 1999 to 2014, we find a positive and statistically significant effect of both mean and median numbers of daily news articles published about wildfires on resources used to combat them. We measure resources using two outcome variables. One is the total number of wildfire personnel involved in suppression. Another one is the total number of aerial resources used. These data come from the ICS209+ dataset, a repository of fire incident reports maintained by the Earth Lab at the University of Colorado, Boulder. Newspaper coverage is constructed using the publicly available database from the Newslibrary maintained by the Newsbank. We identify relevant newspaper articles by conducting a search by relevant keywords for each fire.

Our main instrumental variable is the presence of a “big event” (e.g., the War in Iraq) before a wildfire. We estimate it by measuring the information entropy of the New York Times front page articles. The idea is that wildfires occurring at the same time of a “big event” will receive less media coverage, everything else equal, than wildfires occurring during times where other newsworthy events are scarce. To the extent that big events are unrelated to firefighting resources, this strategy would deliver unbiased estimates of the impact of news coverage on fire suppression efforts. Our results are still preliminary as we refine our data, reduce the measurement error, and add more controls. Our latest set of controls includes weather variables (wind speed, temperature, precipitation, water vapor), state by year and season fixed effects, as well as an indicator for wildfires larger than 115,000 acres. According to the latest estimates, increasing the median daily number of articles about a wildfire by one leads to an increase in the number of total personnel by around 1,887 and an increase in the total number of aerial resources used by 20.4. The mean and standard deviation of total personnel and aerial resources are (1110.95,6689.16) and (24.31,85.12), respectively. These effects are admittedly large, and we expect their size to decrease as we refine the models and the data.

2021-2022

Fighting Fire with Fire: The Clean Air Act and Regulation of Prescribed Fires

Jamie Hansen-Lewis and Daria (Dasha) Ageikina

2020-2021

The Effectiveness of Reforestation: The Tradeoff between Climate Change Mitigation and Adaptation

Dalia Ghanem and Daria (Dasha) Ageikina

Abstract

Specific Objectives of the Project:

The initial goal of the project was to assess the optimality of public reforestation projects in the context of both climate change mitigation and adaptation efforts in California and the U.S. We aimed to analyze the tradeoff between the climate mitigation value of afforestation and its cost in terms of wildfire risks. During the project, the objective became more specific. The focus shifted to the CARB’s Compliance Offset Program U.S. Forest Projects. The main final objective of the paper was to investigate whether the program’s design suffers from adverse selection that could lead to the program’s inefficiency.

Summary of Results:

In the program under consideration, an individual or an organization can get carbon offsets for engaging in one of the three activities: reforestation, improved forest management, or avoided conversion of forested land to other uses (such as residential areas or agricultural land). The main aim for each of them is to achieve a sustainable long-term growth of forests and maintain the stocking of trees at the project's designated land at a high level. The Compliance Offset Program does consider that wildfires might affect the forest projects and hence reverse the carbon sequestration. It treats the wildfire risk just like any other risk that can interrupt the project. To insure against such risks, the Air Resources Board maintains a Forest Buffer Account. Each project operator must contribute a part of their awarded carbon offsets to the Account. If an unexpected wildfire burns down the trees in the project area, the project operator will not lose the already awarded credits. The Account is insurance against such cases for both project operators and for the Program itself.

Our concern about this insurance-like buffer account was the potential adverse selection due to the essentially flat wildfire risk suggested by the program. We created a simple economic model of risk-neutral agents deciding whether to participate in the program. The model predicts that the potential forest projects with higher wildfire risks might be more likely to opt into the program because it provides partial insurance against wildfires. This adverse selection of the projects would make the Compliance Offset Program inefficient. First, the expected carbon sequestered, or the number of offsets supplied to the Cap-and-Trade market might not be optimal. For instance, fewer projects might participate, making carbon sequestration too low. In health insurance, it would correspond to a case when the equilibrium premium is too high, resulting in the lack of low-risk buyers. Second, the overall program will not be cost-effective because it could use more low-risk projects to sequester the same amount of carbon. Third, if high-risk projects increase the wildfire risks of the areas around them even more, it might put communities in danger and create other welfare effects.

To see empirically whether adverse selection is present in the program, we used open access data on the U.S. Offset projects, available on the ARB's website. At the time of the empirical analysis, 147 projects participated, but the program is ongoing, and more projects join each year. In our analysis, we used 79 projects because of the access to the GIS data for the other 68 of them. We compared the estimated fire risks of the projects' locations to the fire risks in the comparison group of other eligible lands. The data on fire risks comes from the USDA Forest Service.

We could not find any statistically significant adverse selection as of now. However, we did not fully finish the analysis yet, and the project is still in progress. Possibly, we did not detect adverse selection due to a small sample of the projects. We still need to estimate the locations of the remaining 68 projects. The total acreage of all 147 projects should be around 10 million acres. The second factor might be a comparison group of eligible lands. We are yet to refine the comparison group and exclude all potential lands that have a low chance of participation regardless of the fire risk of the project.