Submitted:
28 August 2026
Posted:
31 August 2026
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Abstract
This study examines whether pro-climate lobbying intensity is associated with corporate default risk. Using a panel of 4,176 firm-year observations from U.S.-listed firms, we measure financial stability using distance-to-default and pro-climate lobbying intensity as annual pro-climate lobbying expenditure scaled by total assets. Fixed-effects estimates show that pro-climate lobbying intensity is positively and significantly associated with distance-to-default, indicating lower default risk. Economically, a one-standard-deviation increase in lobbying intensity corresponds to an approximately 0.084-unit increase in distance-to-default, equivalent to 1.39% of its sample mean. The evidence is consistent with signaling theory, as costly climate-policy engagement may communicate transition preparedness, and stakeholder theory, as alignment with climate-conscious stakeholders may reduce regulatory, reputational, and financing risks. The relationship remains evident after entropy balancing, controlling for lagged distance-to-default in a dynamic specification, and replacing distance-to-default with the Altman Z-score. It is also qualitatively robust to replacing the comprehensive lobbying measure with a narrower text-based proxy that identifies pro-climate lobbying through explicit climate-related keywords. Split-sample analyses show a stronger and more precisely estimated association among firms with at-or-above-median environmental and social performance. Volatility-based splits further indicate that the association is concentrated among firms with at-or-above-median cash-flow and earnings volatility, suggesting that climate-policy engagement may be particularly informative under greater operating uncertainty. These heterogeneous patterns remain descriptive pending formal coefficient-comparison tests. Overall, the study contributes to the corporate political activity, climate-finance, and credit-risk literatures by demonstrating that pro-climate lobbying contains information relevant to financial resilience and that its relevance varies with firms’ sustainability performance and operating uncertainty.
Keywords:
pro-climate lobbying
; corporate default risk
; distance-to-default
; climate-transition risk
; environmental and social performance
1. Introduction
Corporate climate lobbying refers to firms’ efforts to influence federal legislation on climate-related issues through lobbying reports, and it takes two directions that are frequently conflated in the public debate: opposition to climate regulation (“anti-climate” lobbying) and support for it (“pro-climate” lobbying). Leippold et al. (2024) show that these two directions can be systematically identified using the political-party leanings of a firm’s executives and hired lobbyists, since firms whose associated individuals donate predominantly to Democratic candidates disproportionately lobby in favor of climate action, while those aligned with Republican candidates’ lobby against it. This distinction matters because the two forms of lobbying are not simply mirror images of the same underlying activity. Anti-climate lobbyists are concentrated in carbon-intensive sectors and are perceived by investors as riskier, commanding a return premium consistent with exposure to reputational, transition, legal, and political risk. Pro-climate lobbyists, by contrast, are systematically more green-innovative, suggesting that supporting climate regulation is not a costless public-relations gesture but rather reflects a firm’s underlying business model and its readiness for the transition to a low-carbon economy. If pro-climate lobbying intensity credibly signals this kind of transition preparedness, it should also be reflected in how credit markets assess a firm’s fundamental risk of default, which motivates our focus on the relationship between pro-climate lobbying and distance-to-default.
Distance-to-default (DTD) is a market-based, forward-looking measure of credit risk derived from the structural model of Merton (1974), which treats a firm’s equity as a call option on its underlying assets, with default occurring when asset value falls below the face value of debt. DTD captures the number of standard deviations a firm’s asset value must decline before crossing this default threshold; a higher DTD signals greater financial resilience. Because it is estimated from equity prices and volatility, DTD reflects the market’s continuously updated assessment of default risk, making it more forward-looking than accounting-based measures.
The link between pro-climate lobbying and DTD follows from channels already documented in the literature. Safiullah et al. (2024) show that U.S. firms with higher green innovation exhibit higher distance-to-default, operating through lower cash-flow volatility and reduced managerial risk-taking, while Fiorillo et al. (2023) find a similar pattern in a European sample. Since Leippold et al. (2024) show that pro-climate lobbyists are themselves more green-innovative than anti-climate lobbyists, pro-climate lobbying intensity should proxy for the same risk-reducing characteristics. Firms lobbying in favor of climate policy are more likely to have already begun aligning their business models with the low-carbon transition, implying more stable cash flows and lower exposure to regulatory and reputational shocks, both of which mechanically raise distance-to-default under the Merton framework. This motivates our hypothesis that pro-climate lobbying intensity is positively associated with distance-to-default.
Two accounting and finance theories provide strong support for the hypothesized positive association between pro-climate lobbying intensity and distance-to-default. First, signaling theory, as developed by Spence (1973), holds that under information asymmetry, agents take costly, observable actions to credibly reveal private information that outside parties cannot otherwise verify. Pro-climate lobbying fits this logic well: it is an expensive, deliberate activity that only firms genuinely committed to the climate transition are likely to sustain, since misaligned lobbying risks reputational and political backlash. Consistent with this, Leippold et al. (2024) show that pro-climate lobbyists are systematically more green-innovative than anti-climate lobbyists, indicating that the direction of a firm’s lobbying is not cheap talk but a credible signal of its underlying business model and transition preparedness. Second, stakeholder theory, as developed by Freeman (2010), argues that firms which proactively manage relationships with a broad set of stakeholders (regulators, investors, communities, and advocacy groups) build relational capital that reduces exposure to stakeholder-driven risks such as litigation, boycotts, and financing constraints. By actively supporting climate policy, firms strengthen their standing with increasingly climate-conscious stakeholders, lowering their vulnerability to future regulatory and reputational shocks. Both channels imply more stable cash flows and reduced asset-value volatility, which under the Merton (1974) structural credit-risk framework mechanically raises a firm’s distance-to-default, reinforcing the theoretical basis for the hypothesized positive relationship.
Contemporary research increasingly recognizes corporate climate lobbying as an informative form of corporate political activity that can reveal firms’ underlying climate-transition strategies. Leippold et al. (2024) distinguish pro-climate from anti-climate lobbying and find that pro-climate lobbyists demonstrate greater green innovation, whereas anti-climate lobbying is concentrated among firms with more carbon-intensive business models and is associated with higher market-perceived risk. Similarly, Kwon et al. (2026) show that the direction of environmental lobbying provides information about firms’ actual environmental positions and predicts real outcomes, including future emissions, beyond what is conveyed by conventional environmental ratings. Recent studies further demonstrate that firms’ exposure to climate-related regulatory concerns and business opportunities influences whether they lobby, how much they spend, and which government institutions they target (Baehr et al., 2026), while environmental lobbying can moderate firms’ negative stock-market reactions to environmental legislation and produce different emissions outcomes for green and brown firms (Jiao et al., 2026). A parallel climate-finance literature shows that green innovation reduces corporate default risk by lowering cash-flow volatility and managerial risk-taking (Safiullah et al., 2024). Nevertheless, these two research streams remain largely disconnected: climate-lobbying studies primarily examine firms’ lobbying motives, environmental behavior, legislative outcomes, and equity-market consequences, whereas default-risk studies focus on emissions, environmental performance, and green innovation without considering corporate political engagement. The present study contributes to the literature by connecting these streams and examining whether pro-climate lobbying intensity contains information about firms’ financial resilience. Specifically, by investigating its association with distance-to-default, the study extends the financial implications of climate lobbying from equity valuation to corporate credit risk and identifies pro-climate lobbying as a potential indicator of transition preparedness, regulatory adaptability, and lower financial-distress exposure. This contribution is especially important because it focuses on the comparatively underexplored constructive side of corporate climate lobbying rather than treating all lobbying as regulatory obstruction.
We test these predictions using a panel of U.S. listed firms spanning 2007 to 2022, with up to 10,525 firm-year observations for which pro-climate lobbying data are available. Our baseline analysis uses 4,176 firm-year observations with complete data and estimates firm and year fixed-effects models with standard errors clustered at the firm level. We find that pro-climate lobbying intensity is positively and significantly associated with distance-to-default (coefficient = 7.262, p < .01), consistent with H1 and indicating that firms engaging more intensively in pro-climate lobbying exhibit lower default risk and greater financial stability. The finding remains robust when entropy balancing is used to improve covariate comparability between lobbying and non-lobbying firms (coefficient = 6.885, p < .05), when the lagged dependent variable is included in a dynamic fixed-effects specification (coefficient = 5.353, p < .05), and when Altman Z-Score replaces distance-to-default as the measure of financial distress (coefficient = 4.900, p < .10). Collectively, these tests reduce concerns that the baseline result is attributable to observable differences between firms, persistence in default risk, or reliance on a particular distress measure.
The results are also economically meaningful rather than merely statistically detectable. Based on the baseline coefficient and the sample standard deviation of pro-climate lobbying intensity (0.0115), a one-standard-deviation increase in lobbying intensity is associated with an increase of approximately 0.084 in distance-to-default (7.262 × 0.0115), equivalent to about 1.39% of its sample mean. The corresponding effects remain economically relevant in the entropy-balanced and dynamic specifications, at approximately 1.31% and 1.02% of mean distance-to-default, respectively. Moreover, the relationship is particularly pronounced among firms with stronger environmental and social performance. For firms with above-median environmental performance, a one-standard-deviation increase in pro-climate lobbying intensity corresponds to an increase of approximately 0.195 in distance-to-default, or 3.23% of its full-sample mean; for firms with above-median social performance, the comparable increase is approximately 0.167, or 2.78%. These split-sample patterns suggest that pro-climate lobbying is most strongly associated with financial resilience when it is supported by substantive environmental and stakeholder-oriented performance, although formal coefficient-difference tests are required before concluding that the subgroup estimates differ statistically.
Addressing the gaps in the existing literature, this study makes three principal contributions. First, it connects the emerging literature on corporate climate lobbying with research on corporate default risk by documenting that the direction and intensity of firms’ political engagement on climate policy are associated with their financial resilience. Whereas prior studies largely examine the determinants, credibility, and environmental consequences of climate lobbying, we show that pro-climate lobbying also has implications for an important capital-market outcome: the firm’s distance from default. Second, the study contributes to the credit-risk and sustainability literatures by identifying pro-climate lobbying intensity as a distinct, forward-looking dimension of corporate climate-transition positioning. Consistent with signaling theory, sustained pro-climate lobbying may communicate credible information about transition preparedness; consistent with stakeholder theory, it may strengthen relationships with regulators, investors, communities, and other climate-conscious stakeholders. Both channels can reduce exposure to regulatory, reputational, and financing shocks, thereby supporting more stable cash flows and asset values. Third, the environmental- and social-performance analyses identify meaningful boundary conditions: the positive association is stronger among firms with above-median environmental and social scores, suggesting that external policy advocacy is most informative when accompanied by stronger underlying sustainability performance.
The remainder of the paper is organized as follows. Section 2 reviews the relevant literature, develops the theoretical arguments based on signaling theory and stakeholder theory, and presents the hypothesis. Section 3 describes the U.S. sample, data sources, variable measurement, and empirical model specifications. Section 4 reports the descriptive statistics and multicollinearity diagnostics, presents the baseline fixed-effects results, evaluates robustness and endogeneity using entropy balancing, dynamic fixed-effects estimation, and Altman Z-Score, and examines heterogeneity across firms with different levels of environmental and social performance. Section 5 concludes the paper, discusses its theoretical and policy implications, acknowledges the study’s limitations, and identifies avenues for future research.
2. Literature Review and Hypothesis Development
2.1. Pro-Climate Lobbying and Corporate Default Risk
Recent research increasingly treats pro-climate lobbying as a revealed-preference form of corporate political activity rather than symbolic sustainability rhetoric. The main motivation for this study comes from Leippold et al. (2024), who explicitly quantify corporate anti- and pro-climate lobbying among U.S.-listed firms and show that pro-climate lobbyists exhibit significantly more green innovation, whereas anti-climate lobbyists are associated with more carbon-intensive business models and higher market-perceived risk. This distinction suggests that pro-climate lobbying may reflect genuine climate-transition preparedness rather than generic ESG engagement. Consistent with this view, Kwon et al. (2026) show that the direction of environmental lobbying provides an informative signal of firms’ climate-transition strategy, as lobbying orientation predicts real environmental actions such as emissions, while innovation and lobbying operate as complementary responses to regulatory uncertainty. From a theoretical perspective, Kennard (2020) argues that firms with lower expected adjustment costs may support climate regulation because stricter environmental policy can shift market share toward better-prepared firms and away from competitors facing higher compliance costs. Importantly, recent evidence directly links green innovation to lower default risk. Fiorillo et al. (2023), using a large European sample, find that green innovation is negatively associated with firms’ default risk, measured through market-based default probability, Altman’s Z-score, and Zmijewski’s ZM-score, mainly through improved profitability and firm value channels. Similarly, Safiullah et al. (2024), using U.S. firm-year observations, show that firms with higher green innovation experience lower default risk measured by distance-to-default, probability of default, and CDS spreads, with lower cash flow volatility and reduced managerial risk-taking serving as important channels. Taken together, these studies suggest that pro-climate lobbying may indicate stronger green innovation capacity, better transition readiness, lower regulatory and cash-flow uncertainty, and improved financial resilience, all of which are consistent with higher distance-to-default.
The political-economy literature further suggests that firms’ climate-related lobbying reflects strategic responses to climate-policy uncertainty, regulatory exposure, and emerging transition opportunities. Lerner & Osgood (2023) show that corporate support for climate policy diffuses through board networks, indicating that firms’ constructive climate-policy engagement is shaped by governance linkages, learning, socialization, and competitive dynamics rather than being purely symbolic. Similarly, Baehr et al. (2026) find that firms with greater exposure to climate-related opportunities and regulatory concerns are more likely to engage in climate lobbying, spend more on lobbying, and direct their lobbying toward different government targets depending on the nature of their climate exposure. Kwon et al. (2026) further show that the direction of environmental lobbying provides an informative signal of firms’ environmental stance and predicts real environmental actions, such as emissions, beyond what is captured by conventional environmental ratings. In a related corporate finance setting, Jiao et al. (2026) document that firms engaging in environmental lobbying experience less negative stock price reactions following the passage of environment-related legislation, while emissions decline for green lobbying firms. Collectively, these studies suggest that pro-climate lobbying may reflect firms’ strategic climate-policy orientation, enhance regulatory preparedness, strengthen stakeholder confidence, and improve firms’ ability to navigate climate-transition risks, thereby contributing to greater financial stability.
The finance literature provides additional evidence linking climate-oriented corporate actions to lower financial distress risk. Hoepner et al. (2024) show that ESG shareholder engagement reduces firms’ downside risk, with particularly strong effects for environmental engagements, and lowers the likelihood of subsequent adverse environmental incidents. Similarly, Duong et al. (2025) document that firms with stronger carbon-risk management practices exhibit significantly lower credit default swap (CDS) spreads, indicating reduced credit risk and improved debt-market perceptions. Kacperczyk & Peydró (2022) further show that firms with higher carbon emissions receive less bank credit from decarbonization-committed lenders and subsequently reduce debt, leverage, size, and investment, highlighting the importance of climate alignment for financing access and credit-market outcomes. Direct evidence on corporate political activity and credit-market outcomes lends further support to this channel: Delis et al. (2024) show that lobbying by banks improves the performance of their corporate borrowers, particularly opaque and credit-constrained firms, consistent with lobbying conveying valuable information to credit markets rather than merely securing preferential regulatory treatment. More directly related to default risk, Chowdhury et al. (2026) find that firms with greater exposure to climate-related shocks, such as natural disasters, exhibit higher corporate default risk and face stricter credit terms from lenders, underscoring the relevance of climate-related factors for credit-market assessments of firm risk. Although these studies focus on climate engagement, carbon-risk management, and financing rather than lobbying per se, they identify several channels through which pro-climate lobbying may enhance financial resilience, including lower downside risk, improved creditworthiness, enhanced stakeholder legitimacy, and better access to capital markets. When combined with Leippold et al. (2024) evidence that pro-climate lobbyists are more green-innovative and strategically positioned for the climate transition, this literature provides strong theoretical and empirical support for the hypothesis that greater pro-climate lobbying intensity is associated with higher distance-to-default and lower default risk.
H1:
Pro-climate lobbying intensity is positively associated with firms’ distance-to-default.
3. Data and Research Design
This section describes the sample-selection process, data sources, variable measurement, and empirical methodology employed in the study. Using a panel of U.S.-listed firms from 2007 to 2022, we combine firm-level pro-climate lobbying data with financial, market, and sustainability information obtained from established databases. We first explain the construction of distance-to-default, pro-climate lobbying intensity, and the control variables. We then present the fixed-effects regression framework used to test the association between pro-climate lobbying intensity and corporate default risk, followed by the robustness, endogeneity, and split-sample analyses.
3.1. Sample Selection and Data Sources
The study employs a panel of U.S.-listed firms covering the period from 2007 to 2022. Data on firms’ pro-climate lobbying activities are obtained from the corporate climate-lobbying dataset developed by Leippold et al. (2024). This dataset identifies the direction of corporate climate lobbying and provides firm-level estimates of expenditures associated with lobbying in support of climate-related policies. We merge these data with financial and market information obtained from LSEG Refinitiv. Specifically, LSEG Refinitiv provides the accounting variables used to construct the firm-level controls, including firm age, firm size, leverage, return on assets, market-to-book ratio, property, plant and equipment intensity, current ratio, capital expenditure intensity, cash-flow volatility, earnings volatility, and interest coverage. Environmental and social pillar scores used in the split-sample analyses are also obtained from LSEG Refinitiv.
Distance-to-default data are obtained from the Credit Research Initiative database maintained by the National University of Singapore. The final sample is constructed by matching the lobbying, default-risk, and financial datasets at the firm-year level and retaining U.S. firm-year observations with the information required for each empirical specification. Consequently, the number of observations varies across analyses according to data availability. All continuous variables are winsorized at the 1st and 99th percentiles to mitigate the influence of extreme observations. The resulting dataset allows us to examine whether the intensity of firms’ pro-climate lobbying is associated with their distance-to-default while accounting for observable firm characteristics and unobserved time-invariant firm heterogeneity.
3.2. Variable Measurement
3.2.1. Dependent Variable: Default Risk
The extant literature employs both accounting-based and market-based measures of default risk. Market-based measures are generally preferred, as they are forward-looking, incorporate real-time market information, and exhibit superior explanatory power relative to accounting-based alternatives. Following prior studies (Atif & Ali, 2021; Kabir et al., 2021; Vivel-Búa et al., 2023), we adopt distance-to-default (DD) as our primary proxy for default risk.
Distance-to-default is derived from the structural credit-risk model of Merton (1974) and is estimated as follows:
where VA denotes the market value of firm assets, assumed to follow a geometric Brownian motion with drift μ and volatility σA; Xt is the default point, defined as short-term liabilities plus one-half of long-term liabilities; and the time horizon √(T − t) is set to one year. A lower distance-to-default indicates a higher probability of default, and vice versa. Distance-to-default data are obtained from the Credit Research Initiative (CRI) database at the National University of Singapore, which refines the traditional distance-to-default estimation using the technique proposed by Duan et al. (2012).
3.2.2. Main Independent Variable: Pro-Climate Lobbying
The main independent variable is pro-climate lobbying intensity, obtained from the corporate climate-lobbying dataset developed by Leippold et al. (2024). The authors construct the measure from quarterly federal lobbying reports filed under the U.S. Lobbying Disclosure Act. First, they identify climate-related lobbying issues when a report’s description contains climate-specific keywords, such as climate change, carbon emissions, renewable energy, clean energy, or energy efficiency, or refers to a climate-related congressional bill. Because lobbying reports disclose total expenditure but not expenditure for each individual issue, the climate-related amount is estimated by allocating the report’s total lobbying expenditure proportionally according to the number of climate-related issues contained in the report.
Because lobbying reports generally do not disclose whether a firm supports or opposes the identified climate policy, Leippold et al. (2024) infer lobbying direction from political contributions made by the firm’s executives or, when executive contribution data are unavailable or inconclusive, its hired lobbyists. A climate-related lobbying report is classified as pro-climate when the associated executives allocate at least 75% of their political contributions during the preceding three years to the Democratic Party, which the authors identify as having a comparatively pro-climate policy orientation. Executive teams must also have contributed more than $1,000. When executive-based classification is unavailable, the authors apply a similar 75% threshold to lobbyists’ historical political contributions. Pro-climate lobbying expenditures are subsequently aggregated across all reports and four quarters for each firm-year. To account for differences in firm size, the annual expenditure is divided by total assets. Accordingly, pro-climate lobbying intensity is defined as:
Higher values indicate that a firm devotes a greater proportion of its assets to lobbying associated with a pro-climate political orientation, whereas zero indicates that no pro-climate lobbying expenditure is identified under the classification procedure. Importantly, the variable represents an inferred lobbying stance rather than a directly disclosed position on individual legislation. Nevertheless, the measure provides a systematic firm-year indicator of the intensity of corporate political engagement in support of a comparatively pro-climate policy agenda (Leippold et al., 2024).
3.2.3. Alternative Independent Variable: Pro-Climate Lobbying Intensity- Text-Based
As an alternative proxy, the study employs text-based pro-climate lobbying intensity. Unlike the comprehensive measure, which identifies climate-related lobbying through either explicit climate keywords or references to climate-related congressional bills, the text-based measure identifies lobbying activity solely from climate-specific keywords contained in lobbying-report issue descriptions. It therefore excludes lobbying identified only through bill titles, bill numbers, or other legislative references. The lobbying-direction classification, expenditure-allocation procedure, and annual firm-level aggregation follow the same approach used for the primary measure (Leippold et al., 2024).
To maintain comparability with the comprehensive measure, annual text-identified pro-climate lobbying expenditure is scaled by total assets:
Pro-Climate Lobbying Intensity- Text-Basedi,t = Annual Text-Identified Pro-Climate Lobbying Expenditurei, t / Total Assetsi, t
Higher values indicate greater text-identifiable pro-climate lobbying expenditure relative to firm size, whereas zero indicates that no pro-climate lobbying expenditure is identified through explicit climate-related keywords. Because this proxy applies a narrower identification criterion, it provides a robustness test of whether the main findings depend on the comprehensive measure’s inclusion of climate-related bill references.
3.2.4. Control Variables
Following prior research on climate-related corporate activities and default risk, we include a comprehensive set of firm-level control variables that may affect both pro-climate lobbying decisions and firms’ financial stability (Atif & Ali, 2021; Kabir et al., 2021; Leippold et al., 2024; Safiullah et al., 2024). Firm age, measured as the natural logarithm of firm age, controls for organizational maturity, operating experience, and established relationships with external stakeholders. Firm size, measured as the natural logarithm of total assets, accounts for differences in operational scale, resource availability, political engagement capacity, and access to external financing. Leverage, calculated as total liabilities divided by total assets, captures firms’ financial obligations and exposure to debt-servicing pressure. Return on assets (ROA), measured as net income scaled by total assets, controls for profitability and firms’ ability to generate sufficient resources to meet their financial commitments. Market-to-book ratio, calculated as the trading price divided by book value per share, captures growth opportunities and market expectations regarding firms’ future performance.
We further control for PPE intensity, measured as net property, plant, and equipment scaled by total assets, because asset tangibility may affect both borrowing capacity and exposure to climate-transition risk. Current ratio, calculated as current assets divided by current liabilities, captures short-term liquidity and firms’ ability to satisfy current obligations. Capital expenditure intensity, measured as capital expenditure scaled by total assets, controls for investment activity and capital requirements. Because fluctuations in internal resources and operating performance can materially influence default risk, we include cash-flow volatility and earnings volatility, measured as the rolling three-year standard deviations of operating cash flow and earnings, respectively. Finally, interest coverage, calculated as earnings before interest and taxes divided by interest expense, captures firms’ debt-servicing capacity. All relevant accounting variables are obtained from LSEG Refinitiv, with the required ratios and transformations calculated by the authors. Social and environmental pillar scores are used separately in the heterogeneity analyses rather than as baseline control variables.
Table 1.
Variable Definitions, Data Sources, and References.
| Variable | Definition and Measurement | Data Source | Reference(s) |
|---|---|---|---|
| DTD (Mean) | Mean value of Distance-to-Default (DTD); higher values indicate lower default risk. | RMI–CRI, National University of Singapore | (Atif & Ali, 2021; Kabir et al., 2021; Safiullah et al., 2024) |
| Altman Z-Score | Alternative accounting-based measure of financial distress; higher values indicate lower financial-distress risk and greater financial stability. Calculated as: Z = 1.2(WC/TA) + 1.4(RE/TA) + 3.3(EBIT/TA) + 0.6(MVE/TL) + 1.0(Sales/TA). | LSEG Refinitiv; authors’ calculation | (Altman, 1968) |
|
Pro-Climate Lobbying Intensity |
Pro-Climate Lobbying Intensityᵢ,ₜ = [Σ₍q₌₁,…,₄₎ Pro-Climate Lobbying Expenditureᵢ,ᵩ,ₜ] / Total Assetsᵢ,ₜ. | Corporate Climate Lobbying dataset | (Leippold et al., 2024) |
| Firm Age | Natural logarithm of firm age. | LSEG Refinitiv; authors’ calculation | (Kabir et al., 2021; Leippold et al., 2024; Safiullah et al., 2024) |
| Firm Size | Natural logarithm of total assets. | LSEG Refinitiv; authors’ calculation | (Kabir et al., 2021; Leippold et al., 2024; Safiullah et al., 2024) |
| Leverage | Total liabilities divided by total assets. | LSEG Refinitiv; authors’ calculation | (Kabir et al., 2021; Leippold et al., 2024; Safiullah et al., 2024) |
|
Return on Assets (ROA) |
Net income divided by total assets. | LSEG Refinitiv; authors’ calculation | (Kabir et al., 2021; Safiullah et al., 2024) |
| Market-to-Book | Market price per share divided by book value per share. | LSEG Refinitiv | (Kabir et al., 2021; Safiullah et al., 2024) |
| PPE Intensity | Net property, plant, and equipment divided by total assets. | LSEG Refinitiv; authors’ calculation | |
| Current Ratio | Total current assets divided by total current liabilities, conditional on positive current liabilities. | LSEG Refinitiv; authors’ calculation | (Vivel-Búa et al., 2023) |
|
Capital Expenditure Intensity |
Capital expenditure divided by total assets. | LSEG Refinitiv; authors’ calculation | -- |
| Cash-Flow Volatility | Three-year rolling volatility of operating cash flow. | LSEG Refinitiv; authors’ calculation | -- |
| Earnings Volatility | Three-year rolling volatility of earnings. | LSEG Refinitiv; authors’ calculation | -- |
| Interest Coverage | Earnings before interest and taxes (EBIT) divided by interest expense. | LSEG Refinitiv; authors’ calculation | -- |
| Social Score | LSEG Refinitiv social pillar score, used to partition the sample for heterogeneity analysis. | LSEG Refinitiv | (Atif & Ali, 2021) |
| Environmental Score | LSEG Refinitiv environmental pillar score, used to partition the sample for heterogeneity analysis. | LSEG Refinitiv | (Atif & Ali, 2021) |
Notes: This table presents the definitions, data sources, and primary references for the variables used in the empirical analysis. Social Score and Environmental Score are used to partition the sample for heterogeneity analysis and are not included as baseline controls. All continuous variables are winsorized at the 1st and 99th percentiles unless otherwise noted. For Altman Z-Score, WC denotes working capital, TA total assets, RE retained earnings, EBIT earnings before interest and taxes, MVE market value of equity, and TL total liabilities.
3.3. Empirical Model Specification
To examine the association between pro-climate lobbying intensity and corporate default risk, we first estimate the following baseline fixed-effects regression:
where DTDᵢ,ₜ denotes the distance-to-default of firm i in year t. Higher DTD values indicate lower default risk and greater financial stability. ProClimateIntensityᵢ,ₜ represents annual pro-climate lobbying expenditure scaled by total assets. The coefficient of interest is β₁, which captures the association between pro-climate lobbying intensity and distance-to-default. Consistent with the study hypothesis, β₁ is expected to be positive. The control-variable vector includes firm age, firm size, leverage, return on assets, market-to-book ratio, PPE intensity, current ratio, capital expenditure intensity, cash-flow volatility, earnings volatility, and interest coverage. Firm fixed effects (μᵢ) control for time-invariant firm characteristics, while year fixed effects (λₜ) account for economy-wide shocks and other temporal factors common to all firms. Standard errors are clustered at the firm level to address heteroskedasticity and within-firm serial correlation.
To reduce observable differences between firms engaging and not engaging in pro-climate lobbying, we subsequently employ entropy balancing. Firms with positive pro-climate lobbying intensity constitute the treatment group, whereas firms reporting no pro-climate lobbying constitute the control group. Entropy balancing reweights control observations so that the covariate distributions of the two groups are comparable. We then re-estimate the baseline fixed-effects model using the entropy-balancing weights:
As an additional robustness test, we estimate a dynamic fixed-effects model that incorporates the one-year lag of the dependent variable:
Including DTDᵢ,ₜ₋₁ accounts for the persistence of corporate financial condition and helps determine whether pro-climate lobbying intensity retains explanatory power after controlling for prior default-risk levels.
We also replace DTD with the Altman Z-score as an alternative measure of financial distress:
Because higher Altman Z-scores indicate lower financial-distress risk, a positive β₁ would provide evidence consistent with the baseline findings.
To assess whether the baseline findings are sensitive to the measurement of the main independent variable, we re-estimate the baseline model using Pro Climate Intensity - Text-Based as an alternative proxy. This measure identifies pro-climate lobbying expenditures solely through explicit climate-related keywords contained in lobbying-report issue descriptions and scales the annual text-identified amount by total assets. Unlike the comprehensive measure, it excludes lobbying identified only through references to climate-related bills. The alternative-proxy model is specified as follows:
DTDi,t = α + β1ProClimateIntensityTexti,t + γ’Controlsi,t + μi + λt + εi,t
The dependent variable, control variables, firm and year fixed effects, and firm-level clustering remain unchanged from the baseline specification. A positive and statistically significant β1 would indicate that the positive association between pro-climate lobbying and distance-to-default is not dependent on the comprehensive lobbying measure’s inclusion of climate-related bill references. The specification therefore provides a direct test of measurement robustness using a narrower, text-based proxy for the principal independent variable.
Finally, we conduct split-sample analyses to examine whether the association between pro-climate lobbying intensity and distance-to-default varies with firms’ environmental performance, social performance, and operating volatility. First, the sample is divided into firms with environmental pillar scores below the sample median and firms with scores at or above the median, and the baseline fixed-effects model is estimated separately for the two groups. Second, the same procedure is applied using the social pillar score. Third, the sample is divided at the pooled median of three-year cash-flow volatility. Fourth, the corresponding split is performed using three-year earnings volatility. The following model is estimated independently for each subsample:
where g indexes the below-median and at-or-above-median subsamples formed using the environmental pillar score, social pillar score, three-year cash-flow volatility, or three-year earnings volatility. Distance-to-default remains the dependent variable, pro-climate lobbying intensity is the principal independent variable, and X denotes the applicable set of firm-level controls. The full set of controls is retained in the environmental- and social-performance analyses. In the cash-flow-volatility split, cash-flow volatility is omitted because it is the partitioning variable, while earnings volatility is retained. Conversely, in the earnings-volatility split, earnings volatility is omitted and cash-flow volatility is retained. All specifications include firm and year fixed effects, with standard errors clustered at the firm level. Comparisons of the estimated coefficients provide descriptive evidence on whether the financial relevance of pro-climate lobbying varies with firms’ sustainability performance and operating uncertainty. The volatility splits represent heterogeneity analyses rather than tests of mediation. Differences in coefficient magnitude or statistical significance should not be interpreted as statistically significant cross-group differences unless supported by a formal coefficient-equality or interaction test.
DTDgi,t = αg + βg1ProClimateIntensityi,t + γg’Xgi,t + μi + λt + εi,t
4. Empirical Results and Discussion
This section presents and discusses the empirical findings of the study. We begin by reporting the descriptive statistics to provide an overview of the distributional properties of distance-to-default, pro-climate lobbying intensity, and the firm-level control variables. We then present multicollinearity diagnostics to ensure that multicollinearity does not materially affect the regression estimates. Next, we discuss the baseline fixed-effects regression results, which examine the association between pro-climate lobbying intensity and corporate default risk. We subsequently report the entropy-balanced fixed-effects estimates to reduce observable differences between firms with and without pro-climate lobbying activity. We then present additional robustness analyses using a dynamic fixed-effects specification that controls for the lagged value of distance-to-default and an alternative financial-distress measure based on the Altman Z-score. Finally, we report split-sample evidence based on firms’ environmental and social pillar scores to provide further insight into whether the association between pro-climate lobbying intensity and distance-to-default differs between firms with below-median and above-median environmental and social performance.
4.1. Descriptive Statistics
Table 2 reports the descriptive statistics for the variables employed in the empirical analysis, using the observations included in the baseline estimation sample. The primary dependent variable, distance-to-default, has a mean of 6.0239 and a standard deviation of 3.0099 across 4,176 firm-year observations. Its values range from 0.1674 to 14.3188, indicating substantial variation in financial stability across the sample firms. Because a higher distance-to-default represents a lower likelihood of default, the mean suggests that the average sample firm maintains a reasonable distance from its default threshold. Nevertheless, the relatively large standard deviation and low minimum indicate that some firms experience considerably greater financial vulnerability. The distribution is moderately positively skewed, with a skewness of 0.5429, while its kurtosis of 2.8618 is relatively close to that of a normal distribution.
The primary independent variable, pro-climate lobbying intensity, has a mean of 0.0027 and a standard deviation of 0.0115 across the same 4,176 firm-year observations. The variable ranges from zero to 0.0843, with both its minimum and first-percentile values equal to zero. This distribution indicates that identifiable pro-climate lobbying remains relatively uncommon and that a substantial proportion of observations report no pro-climate lobbying expenditure. At the same time, the maximum value suggests that a smaller group of firms engages comparatively intensively in pro-climate lobbying after expenditures are scaled by total assets. The high skewness of 5.5896 and kurtosis of 36.0574 confirm that the variable is strongly right-skewed, with most observations concentrated near zero. The alternative text-based measure of pro-climate lobbying intensity has a lower mean of 0.0013 and a standard deviation of 0.0059. Its maximum value is 0.0430, while its skewness and kurtosis are 5.6856 and 36.7612, respectively. The smaller mean and maximum are consistent with the narrower construction of this measure, which identifies climate lobbying only through explicit climate-related keywords in lobbying-report descriptions.
The control variables also display considerable cross-sectional and time-series variation. Logged firm age and firm size have respective means of 3.1250 and 16.1463. Mean leverage is 0.6408, with a standard deviation of 0.2492, while mean ROA is 0.0424, indicating modest average profitability. ROA is negatively skewed and exhibits high kurtosis, reflecting a smaller number of observations with substantial accounting losses. Market-to-book has a mean of 4.3089 and a standard deviation of 6.1379, together with pronounced positive skewness, indicating considerable differences in firms’ market valuations and growth opportunities. PPE intensity averages 0.3168, while the current ratio has a mean of 1.8132. Capital expenditure intensity averages 0.0454, suggesting that capital expenditures represent approximately 4.5% of the relevant scaling base for the average observation.
Cash-flow volatility and earnings volatility have respective means of 0.0313 and 0.0327. Both variables exhibit substantial positive skewness and excess kurtosis, indicating that although operating and accounting volatility is relatively low for most firms, a smaller group experiences considerable instability. Interest coverage has a mean of 14.7666 and a comparatively large standard deviation of 33.7856. Its values range from −11.8162 to 188.5343, while its skewness of 3.9258 and kurtosis of 19.0439 demonstrate substantial dispersion and a strongly right-skewed distribution. This variation suggests meaningful differences in firms’ capacity to service their interest obligations.
Finally, the social pillar score has a mean of 59.0388 and a standard deviation of 22.0396 across 3,668 observations, whereas the environmental pillar score has a mean of 50.4572 and a standard deviation of 27.8347 across 3,669 observations. Their broad ranges provide meaningful variation for the subsequent split-sample analyses examining whether the association between pro-climate lobbying intensity and distance-to-default differs according to firms’ environmental and social performance. The smaller numbers of observations for these scores reflect their more limited data availability relative to the baseline financial variables.
4.2. Multicollinearity Diagnostic
Table 3 reports the variance inflation factor (VIF) and tolerance statistics for the two measures of pro-climate lobbying intensity and the financial control variables employed in the empirical analyses. The results indicate that multicollinearity is not a material concern. The highest VIF is 2.71 for the text-based measure of pro-climate lobbying intensity, closely followed by 2.70 for the comprehensive measure. These moderately higher values are unsurprising because both variables measure the same underlying construct and are scaled by total assets, although the text-based proxy identifies pro-climate lobbying solely through explicit climate-related keywords. Importantly, both VIF values remain substantially below the conservative threshold of 5 and the conventional threshold of 10.
Among the control variables, PPE intensity has the highest VIF at 2.05, followed by capital expenditure intensity at 1.83, three-year earnings volatility at 1.70, and three-year cash-flow volatility at 1.59. The VIF values for the remaining variables range from 1.04 for firm age to 1.47 for the current ratio. The mean VIF of 1.66 further indicates a low overall degree of linear dependence among the explanatory variables. Thus, although the two pro-climate lobbying measures contain some common information, their VIF values do not indicate a level of overlap likely to cause unstable coefficient estimates or materially inflate standard errors. Moreover, the comprehensive and text-based measures are used as alternative proxies in separate regression specifications rather than interpreted jointly in the same main model.
The tolerance statistics, calculated as the reciprocal of VIF, reinforce this conclusion. The lowest tolerance value is 0.3688 for text-based pro-climate lobbying intensity, followed by 0.3704 for the comprehensive measure and 0.4875 for PPE intensity. All tolerance values are therefore substantially above the commonly applied cutoff of 0.10. The main financial controls also exhibit comfortable tolerance levels, ranging from 0.5458 for capital expenditure intensity to 0.9575 for firm age. Overall, the VIF and tolerance results demonstrate that the regressors included in the empirical analysis do not exhibit problematic multicollinearity. Accordingly, the estimated relationship between pro-climate lobbying intensity and distance-to-default is unlikely to be driven by excessive linear dependence among the explanatory variables.
4.3. Baseline Regression Results
Table 4 reports the baseline fixed-effects regression results examining the association between pro-climate lobbying intensity and corporate default risk. The dependent variable is distance-to-default, for which higher values indicate lower default risk and greater financial stability. The specification includes firm and year fixed effects, while standard errors are clustered at the firm level. Firm fixed effects absorb time-invariant firm characteristics that may jointly influence climate-related political engagement and default risk, whereas year fixed effects account for macroeconomic conditions, changes in climate policy, financial-market developments, and other common temporal shocks. Clustering the standard errors at the firm level addresses potential heteroskedasticity and serial correlation among observations belonging to the same firm. The regression is estimated using 4,176 firm-year observations and reports an R-squared of 0.816, indicating that the model explains a substantial proportion of the variation in distance-to-default.
The coefficient on pro-climate lobbying intensity is positive and statistically significant at the 1% level (β = 7.262, t = 2.803). Because a higher distance-to-default indicates a lower probability of default, this result suggests that greater pro-climate lobbying intensity is associated with stronger corporate financial stability after controlling for firm age, size, leverage, profitability, growth opportunities, asset tangibility, liquidity, capital expenditure intensity, cash-flow volatility, earnings volatility, and debt-servicing capacity. The result therefore supports H1, which predicts that pro-climate lobbying intensity is positively associated with firms’ distance-to-default. Importantly, because the model includes firm fixed effects, the coefficient represents a within-firm association: increases in a firm’s pro-climate lobbying intensity over time are associated with increases in its distance-to-default after accounting for common year-level shocks and time-invariant firm characteristics.
The economic magnitude of the relationship is also informative. The updated descriptive statistics show that pro-climate lobbying intensity has a standard deviation of 0.0115. Accordingly, a one-standard-deviation increase in pro-climate lobbying intensity is associated with an increase in distance-to-default of approximately 0.0835 units (7.262 × 0.0115). Relative to the updated sample mean distance-to-default of 6.0239, this represents an increase of approximately 1.39%. Although the magnitude is moderate, it is economically meaningful given the highly concentrated distribution of pro-climate lobbying intensity. The variable has a mean of only 0.0027, a first-percentile value of zero, a skewness of 5.5896, and a kurtosis of 36.0574. These statistics indicate that most firm-year observations exhibit relatively low pro-climate lobbying intensity, while a considerably smaller number engage much more intensively. The economic magnitude should therefore be interpreted in light of this strongly right-skewed distribution.
The positive association is consistent with signaling theory. Under information asymmetry, firms may undertake costly and observable actions to communicate private information about their underlying quality and strategic preparedness (Spence, 1973). Pro-climate lobbying requires the allocation of financial and managerial resources and may therefore constitute a more credible signal of climate-transition readiness than inexpensive environmental statements or symbolic commitments. Consistent with this interpretation, Leippold et al. (2024) find that pro-climate lobbyists exhibit greater green innovation, suggesting that the direction of corporate climate lobbying contains information about firms’ underlying business models and transition capabilities. Firms that are better prepared for climate-related regulatory and technological changes may experience lower compliance uncertainty, more stable future cash flows, and lower asset-value volatility. Within the Merton (1974) structural credit-risk framework, these characteristics increase the distance between firm value and the default threshold.
The finding is also consistent with stakeholder theory (Freeman, 2010). Firms depend on continued support from investors, creditors, regulators, customers, employees, and communities. By actively supporting climate-related policy, firms may strengthen their relationships with climate-conscious stakeholders and demonstrate that their political activities are aligned with broader environmental expectations. Stronger stakeholder relationships may reduce exposure to reputational damage, regulatory disputes, litigation, customer boycotts, and financing constraints. They may also improve access to financial resources and reduce uncertainty regarding future regulatory requirements. These potential benefits can contribute to more stable cash flows and lower asset-value volatility, thereby increasing distance-to-default. The result is broadly consistent with evidence that green innovation reduces corporate default risk through lower cash-flow volatility and reduced managerial risk-taking (Safiullah et al., 2024). It also complements Leippold et al. (2024) by showing that the financial relevance of pro-climate lobbying extends beyond firms’ green innovation characteristics to their exposure to corporate default risk.
The control variables generally behave in accordance with corporate default-risk expectations. Leverage has a negative and statistically significant coefficient (β = −1.765, t = −4.352), indicating that increases in financial obligations are associated with lower distance-to-default and greater default risk. This finding is consistent with the view that higher indebtedness moves firms closer to their default threshold and increases debt-servicing pressure. ROA is positive and statistically significant (β = 3.373, t = 5.562), suggesting that improvements in profitability strengthen firms’ financial capacity and increase their distance from default. Market-to-book is also positive and significant (β = 0.020, t = 3.374), indicating that stronger market valuation and growth prospects are associated with greater financial stability.
Capital expenditure intensity has a positive and statistically significant coefficient (β = 5.485, t = 3.249). This result may indicate that productive investment strengthens firms’ operating capacity, future cash-flow prospects, and asset values. Cash-flow volatility and earnings volatility are both negative and statistically significant. The coefficient on cash-flow volatility is −4.220 (t = −3.027), while the coefficient on earnings volatility is −5.324 (t = −4.592). These findings indicate that greater instability in internal cash generation and accounting performance is associated with lower distance-to-default. This evidence is economically intuitive because volatile operating outcomes increase uncertainty regarding firms’ ability to meet future financial obligations. Interest coverage is positive and statistically significant (β = 0.007, t = 3.886), confirming that firms with stronger capacity to cover interest expenses exhibit lower default risk.
Firm size has a negative and statistically significant coefficient (β = −0.515, t = −3.556). Within the firm fixed-effects framework, this estimate captures the association between changes in firm size and distance-to-default within the same firm rather than a simple comparison between large and small firms. The negative coefficient may indicate that asset expansion does not necessarily improve financial stability when it is accompanied by increased financing requirements, organizational complexity, or risk exposure. Firm age, PPE intensity, and the current ratio are statistically insignificant, suggesting that these variables do not independently explain within-firm variation in distance-to-default after the remaining financial controls and fixed effects are included.
Overall, the updated baseline evidence supports the central argument of the study. Pro-climate lobbying intensity remains positively and significantly associated with distance-to-default after controlling for a broad range of default-risk determinants, firm and year fixed effects, and firm-level clustering. Both signaling theory and stakeholder theory provide plausible explanations: pro-climate lobbying may signal credible climate-transition preparedness and strengthen relationships with important stakeholders, thereby reducing regulatory, reputational, financing, and operating risks. The baseline findings therefore support H1 and provide the foundation for the subsequent entropy-balancing, alternative-measure, and cross-sectional analyses.
4.4. Robustness and Endogeneity Analyses
This section presents a series of additional analyses designed to evaluate the robustness of the baseline findings and mitigate selected endogeneity concerns. First, we employ entropy balancing to improve the comparability of firms with positive pro-climate lobbying activity and firms reporting no pro-climate lobbying by reweighting the control group according to observable firm characteristics. We then re-estimate the baseline fixed-effects model using the entropy-balancing weights. Second, we estimate a dynamic fixed-effects specification that includes the lagged value of distance-to-default, thereby accounting for the persistence of firms’ financial condition and examining whether pro-climate lobbying intensity retains explanatory power after controlling for prior default-risk levels.
Third, we replace distance-to-default with the Altman Z-score as an alternative accounting-based measure of financial distress. This analysis evaluates whether the baseline conclusion is robust to an alternative measurement of the dependent variable. Fourth, we replace the comprehensive measure of pro-climate lobbying intensity with a narrower text-based proxy. The alternative measure identifies pro-climate lobbying expenditures solely through explicit climate-related keywords in lobbying-report issue descriptions and, like the primary measure, is scaled by total assets. This test examines whether the baseline result depends on the broader measure of pro-climate lobbying activity or remains evident when lobbying is identified using only explicit climate-related textual information.
Collectively, these analyses assess whether the positive association between pro-climate lobbying intensity and corporate financial stability is robust to observable covariate imbalance, dynamic model specification, alternative measurement of financial distress, and alternative measurement of pro-climate lobbying intensity. Although these tests strengthen confidence in the reliability of the baseline findings, they do not completely eliminate endogeneity concerns arising from unobservable time-varying factors, measurement error, omitted variables, or reverse causality. The results should therefore continue to be interpreted as evidence of a robust association rather than a definitive causal relationship.
4.4.1. Entropy-Balancing Analysis
Table 5 reports the covariate-balance diagnostics before and after applying entropy balancing. The treatment group comprises firms with positive pro-climate lobbying intensity, whereas the control group comprises firms with no identified pro-climate lobbying activity. Before balancing, the two groups exhibit noticeable differences in several observable characteristics. In particular, treatment firms are larger than control firms, with mean firm-size values of 16.97 and 15.97, respectively. Treatment firms also have higher market-to-book ratios (3.994 versus 3.323) and greater PPE intensity (0.354 versus 0.304). Differences are also evident in the current ratio, cash-flow volatility, earnings volatility, and interest coverage. These pre-balancing differences suggest that firms engaging in pro-climate lobbying are not randomly comparable with non-engaging firms and may possess characteristics that independently influence distance-to-default.
The post-balancing results demonstrate that entropy balancing substantially improves covariate comparability. After reweighting, the treatment and control means are identical or nearly identical for all included characteristics. For example, the mean firm-size values are both 16.97, leverage is 0.652 for both groups, PPE intensity is 0.354 for both groups, and capital expenditure intensity is 0.046 for both groups. The post-balancing differences in market-to-book, current ratio, ROA, and interest coverage are also economically negligible. Cash-flow volatility and earnings volatility are exactly balanced at 0.030 and 0.031, respectively.
Overall, the diagnostics indicate that the entropy-balancing procedure successfully removes the observable mean differences between firms with and without pro-climate lobbying activity. The resulting weighted control group therefore provides a more comparable counterfactual for the treatment firms based on the covariates reported in Table 5. This improved balance reduces concerns that the estimated association between pro-climate lobbying intensity and distance-to-default is driven solely by systematic differences in observable firm characteristics. Nevertheless, entropy balancing cannot eliminate bias arising from unobservable characteristics or reverse causality. The entropy-balanced fixed-effects regression presented subsequently provides the formal test of whether the baseline association persists in the reweighted sample.
Table 6 reports the entropy-balanced fixed-effects regression results examining whether the positive association between pro-climate lobbying intensity and distance-to-default persists after improving the comparability of firms with and without positive pro-climate lobbying activity. The coefficient on pro-climate lobbying intensity is positive and statistically significant at the 5% level (β = 6.885, t = 2.185). Because a higher distance-to-default indicates lower default risk, this result suggests that greater pro-climate lobbying intensity remains associated with stronger financial stability after observations are reweighted to balance the observable characteristics of the treatment and control groups. The entropy-balanced coefficient is also close to the updated baseline estimate of 7.262, being approximately 5.2% smaller. Therefore, the positive baseline association is not driven entirely by observable differences between lobbying and non-lobbying firms.
The economic magnitude remains meaningful. Using the updated standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase in lobbying intensity is associated with an approximately 0.079-unit increase in distance-to-default (6.885 × 0.0115). Relative to the updated sample mean distance-to-default of 6.0239, this represents an increase of approximately 1.31%. This effect is comparable to the baseline economic magnitude of approximately 0.084 units, or 1.39% of mean distance-to-default. Thus, the estimated financial relevance of pro-climate lobbying remains broadly stable after entropy balancing.
The control-variable estimates are generally consistent with the baseline results. Firm size is negative and statistically significant (β = −0.463, t = −2.661), while leverage is also negative and significant (β = −2.408, t = −3.772), indicating that firm expansion and greater indebtedness are associated with lower distance-to-default. ROA is positive and significant (β = 3.149, t = 3.902), as are market-to-book (β = 0.016, t = 2.044) and capital expenditure intensity (β = 7.251, t = 2.940). Cash-flow volatility (β = −4.120, t = −2.131) and earnings volatility (β = −5.047, t = −3.027) remain negatively and significantly associated with distance-to-default. Firm age, PPE intensity, the current ratio, and interest coverage are statistically insignificant in the entropy-balanced specification.
The model includes firm and year fixed effects, uses 4,176 firm-year observations, and reports an R-squared of 0.819, slightly exceeding the updated baseline value of 0.816. Overall, the entropy-balanced results reinforce the baseline evidence and provide additional support for H1: pro-climate lobbying intensity is positively associated with firms’ distance-to-default and, therefore, negatively associated with corporate default risk. Nevertheless, entropy balancing addresses selection arising from observed characteristics only and does not eliminate potential endogeneity associated with unobserved time-varying factors or reverse causality. Accordingly, the results strengthen the robustness of the documented association but should not be interpreted as definitive evidence of causality.
4.4.2. Dynamic Fixed-Effects Regression
Table 7 reports the dynamic fixed-effects regression results after incorporating the one-period lag of distance-to-default. The lagged dependent variable is positive and statistically significant at the 1% level (β = 0.342, t = 19.180), providing evidence of persistence in firms’ financial condition over time. More importantly, the coefficient on pro-climate lobbying intensity remains positive and statistically significant at the 5% level (β = 5.353, t = 2.388). Because higher distance-to-default indicates lower default risk, this result suggests that greater pro-climate lobbying intensity remains associated with stronger financial stability after controlling for the firm’s prior default-risk position.
The economic magnitude remains meaningful. Using the updated standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase in lobbying intensity is associated with an approximately 0.062-unit increase in distance-to-default (5.353 × 0.0115). Relative to the updated sample mean distance-to-default of 6.0239, this represents an increase of approximately 1.02%. The dynamic coefficient is smaller than the updated baseline estimate of 7.262, which is reasonable because the lagged dependent variable absorbs part of the persistent variation in firms’ financial stability. Nevertheless, the coefficient retains its positive sign and statistical significance, reinforcing the baseline conclusion and providing additional support for H1.
The control-variable estimates are broadly consistent with the baseline results. Firm size (β = −0.534, t = −4.834), leverage (β = −1.375, t = −4.472), cash-flow volatility (β = −3.502, t = −2.935), and earnings volatility (β = −4.290, t = −4.528) are negatively and statistically significantly associated with distance-to-default. These results indicate that firm expansion, greater indebtedness, and more volatile operating outcomes are associated with increased default risk. In contrast, ROA (β = 2.860, t = 5.808), market-to-book (β = 0.011, t = 2.279), and interest coverage (β = 0.006, t = 3.484) are positive and statistically significant, suggesting that profitability, growth opportunities, and debt-servicing capacity contribute to greater financial stability. Firm age, PPE intensity, the current ratio, and capital expenditure intensity are statistically insignificant in the dynamic specification.
The regression includes firm and year fixed effects with standard errors clustered at the firm level. It is estimated using 4,168 firm-year observations and reports an R-squared of 0.840, compared with 0.816 in the baseline model. The higher explanatory power is consistent with the inclusion of lagged distance-to-default, which captures persistence in firms’ financial condition. Overall, the dynamic results demonstrate that the positive association between pro-climate lobbying intensity and financial stability is not attributable solely to firms’ prior default-risk levels. However, the dynamic fixed-effects specification does not completely eliminate endogeneity concerns and may be subject to finite-panel bias when the time dimension is short. The results should therefore be interpreted as additional robustness evidence rather than definitive evidence of causality.
4.4.3. Alternative Measure of Financial Distress
Table 8 examines whether the baseline finding is robust to using the Altman Z-score as an alternative accounting-based measure of financial distress. Higher Altman Z-scores indicate lower distress risk and greater financial stability. Pro-climate lobbying intensity has a positive coefficient that is statistically significant at the 10% level (β = 4.900, t = 1.661). This positive direction is consistent with the baseline result based on distance-to-default, where pro-climate lobbying intensity is positive and significant at the 1% level. Using the updated standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase in lobbying intensity is associated with an approximately 0.056-unit increase in the Altman Z-score (4.900 × 0.0115). Although the significance is weaker than in the baseline model, the result indicates that the documented association is not dependent solely on the market-based distance-to-default measure.
The control-variable estimates generally reinforce this interpretation. Firm size and leverage are negative and statistically significant, whereas ROA, market-to-book, the current ratio, and interest coverage are positive and significant. Earnings volatility is negative and significant, indicating that unstable financial performance is associated with greater distress risk. The model includes firm and year fixed effects, uses 4,194 firm-year observations, and reports an R-squared of 0.839. Overall, the positive pro-climate lobbying coefficient across both distance-to-default and the Altman Z-score provides qualitative robustness for the baseline conclusion that greater pro-climate lobbying intensity is associated with stronger financial stability. Nevertheless, because the Altman Z-score coefficient is significant only at the 10% level, it should be interpreted as supplementary rather than strong standalone support for H1.
4.4.4. Alternative Text-Based Measure of Pro-Climate Lobbying Intensity
Table 9 examines whether the baseline result is robust to replacing the comprehensive measure of pro-climate lobbying intensity with the alternative text-based measure. The alternative proxy identifies pro-climate lobbying only through explicit climate-related keywords in lobbying-report issue descriptions, whereas the comprehensive measure also incorporates lobbying identified through climate-related bill titles and codes. Both measures are scaled by total assets. The coefficient on text-based pro-climate lobbying intensity is positive and statistically significant at the 5% level (β = 10.496, t = 2.115). Because higher distance-to-default indicates lower default risk and greater financial stability, this result suggests that firms engaging more intensively in explicitly identifiable pro-climate lobbying exhibit greater financial resilience. The positive direction is consistent with the baseline coefficient of 7.262, which is statistically significant at the 1% level. Although the text-based coefficient is numerically larger, it is estimated less precisely. Therefore, the result provides qualitative robustness for the baseline conclusion, but the difference in coefficient magnitudes should not be interpreted without accounting for differences in the distributions of the two proxies.
The control-variable estimates are also broadly consistent with the baseline findings. Firm size and leverage are negative and statistically significant (β = −0.511, t = −3.541; and β = −1.761, t = −4.312, respectively), whereas ROA and capital expenditure intensity are positive and significant (β = 3.415, t = 5.660; and β = 5.470, t = 3.237). Market-to-book and interest coverage are likewise positive and significant. Cash-flow volatility and earnings volatility remain negative and statistically significant, with coefficients of −4.328 (t = −3.115) and −5.284 (t = −4.553), respectively, reinforcing the importance of operating and accounting stability in reducing default risk. Firm age, PPE intensity, and the current ratio remain statistically insignificant. The model uses 4,176 firm-year observations and reports an R-squared of 0.816. It includes firm and year fixed effects with standard errors clustered at the firm level. Overall, the alternative-proxy analysis supports the baseline finding that pro-climate lobbying intensity is positively associated with distance-to-default, even when climate lobbying is measured exclusively through explicit textual disclosures. Nevertheless, the weaker statistical significance warrants a more cautious interpretation than the baseline estimate.
4.5. Cross-Sectional Analyses
This section presents split-sample analyses examining whether the association between pro-climate lobbying intensity and corporate default risk varies with firms’ underlying environmental and social performance and with the volatility of their operating and financial outcomes. We first divide the sample according to the median values of the environmental and social pillar scores. We then partition the sample separately using the pooled medians of three-year cash-flow volatility and three-year earnings volatility. For each partitioning variable, the baseline fixed-effects model is estimated separately for observations below the median and those at or above the median. These analyses provide additional insight into whether the financial relevance of pro-climate lobbying depends on the credibility of firms’ environmental performance, the strength of their stakeholder-oriented conduct, or the uncertainty surrounding their cash flows and earnings. The environmental- and social-performance specifications include the complete set of baseline control variables. In the volatility-based specifications, the variable used to partition the sample is omitted from the corresponding regressions, while the alternative volatility measure is retained as a control. All specifications include firm and year fixed effects with standard errors clustered at the firm level.
4.5.1. Environmental Performance
Table 10 reports the split-sample fixed-effects regression results examining whether the association between pro-climate lobbying intensity and distance-to-default varies with firms’ environmental performance. The sample is divided according to the median environmental pillar score. Column (1) presents the results for firms below the median, whereas Column (2) reports the results for firms at or above the median. For firms with below-median environmental performance, the coefficient on pro-climate lobbying intensity is positive but statistically insignificant (β = 4.883, t = 1.252). In contrast, the coefficient for firms with environmental performance at or above the median is positive and statistically significant at the 1% level (β = 16.921, t = 5.272). These findings indicate that the positive association between pro-climate lobbying intensity and financial stability is concentrated primarily among firms with stronger environmental performance.
The economic magnitudes further illustrate this pattern. Using the updated full-sample standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase is associated with an approximately 0.056-unit increase in distance-to-default among firms with below-median environmental performance (4.883 × 0.0115). Relative to the updated full-sample mean distance-to-default of 6.0239, this represents an increase of approximately 0.93%; however, the underlying coefficient is not statistically distinguishable from zero. For firms with environmental performance at or above the median, the corresponding increase is approximately 0.195 units (16.921 × 0.0115), equivalent to approximately 3.23% of mean distance-to-default. Descriptively, the at-or-above-median coefficient is approximately 3.47 times the below-median estimate and 2.33 times the updated baseline coefficient of 7.262. This pattern suggests that the financial relevance of pro-climate lobbying may be greater when firms’ climate-policy engagement is supported by stronger substantive environmental performance. Nevertheless, a formal coefficient-equality or interaction test is required before concluding that the lobbying coefficients differ statistically across the two environmental-performance groups.
The results are consistent with signaling theory because pro-climate lobbying may represent a more credible signal of climate-transition preparedness when accompanied by strong underlying environmental performance. For firms with weaker environmental performance, similar lobbying activity may be viewed by investors and creditors as less informative or potentially symbolic. The findings are also consistent with stakeholder theory: firms that combine pro-climate political engagement with stronger environmental performance may establish greater trust with investors, creditors, regulators, customers, and other climate-conscious stakeholders. Such alignment may reduce exposure to regulatory, reputational, litigation, and financing risks, thereby contributing to greater financial stability and a larger distance-to-default.
The control-variable estimates are broadly consistent with the baseline analysis. ROA and capital expenditure intensity are positive and statistically significant in both subsamples, while earnings volatility is negative and significant in both groups. Cash-flow volatility is negative and significant only among firms with at-or-above-median environmental performance. Firm size and leverage are also negative and significant only in the above-median group, whereas firm age is negative and significant only in the below-median group. Market-to-book is positive and significant in both specifications, although at different significance levels, while the current ratio is positive and marginally significant only among above-median firms. Interest coverage is positive and significant in both subsamples, whereas PPE intensity remains statistically insignificant. Both models include firm and year fixed effects with firm-level clustered standard errors. Nevertheless, the apparent difference between the subsample coefficients should be interpreted cautiously because a formal coefficient-equality or interaction test is required to establish whether they differ statistically.
4.5.2. Social Performance
Table 11 presents the split-sample fixed-effects regression results examining whether the association between pro-climate lobbying intensity and distance-to-default varies according to firms’ social performance. The sample is divided using the median social pillar score. Column (1) reports the results for firms below the median, whereas Column (2) presents the results for firms at or above the median. Pro-climate lobbying intensity is positively associated with distance-to-default in both subsamples. Among firms with below-median social performance, the coefficient is positive and statistically significant at the 10% level (β = 6.067, t = 1.760). For firms with social performance at or above the median, the coefficient is substantially larger and statistically significant at the 1% level (β = 14.559, t = 3.165). Thus, although the positive association is evident in both groups, it is descriptively stronger and more precisely estimated among firms with better social performance.
The economic magnitude further illustrates this pattern. Using the updated full-sample standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase is associated with an approximately 0.070-unit increase in distance-to-default among firms with below-median social performance (6.067 × 0.0115). Relative to the updated full-sample mean distance-to-default of 6.0239, this represents an increase of approximately 1.16%. For firms with social performance at or above the median, the corresponding increase is approximately 0.167 units (14.559 × 0.0115), equivalent to approximately 2.78% of mean distance-to-default. Descriptively, the at-or-above-median coefficient is approximately 2.40 times the below-median estimate and approximately twice the baseline coefficient of 7.262. These differences suggest that the financial-stability benefits associated with pro-climate lobbying may be more pronounced when firms’ climate-policy engagement is supported by stronger social performance. Nevertheless, a formal coefficient-equality or interaction test is required before concluding that the lobbying coefficients differ statistically across the two social-performance groups.
The findings are consistent with signaling theory because pro-climate lobbying may provide a more credible signal of climate-transition preparedness when undertaken by firms with stronger relationships with employees, customers, communities, and other social stakeholders. They are also consistent with stakeholder theory, as stronger social performance may enhance stakeholder trust and reinforce the benefits of climate-policy engagement by reducing reputational, regulatory, and financing risks. The control-variable estimates are broadly consistent with the baseline results. Firm size is negative and statistically significant in both groups, while leverage is negative and significant only among firms with at-or-above-median social performance. ROA and capital expenditure intensity are positive and significant in both specifications. Earnings volatility is negative and significant in both groups, whereas cash-flow volatility is negative and significant only in the above-median group. Market-to-book is positive and significant only among above-median firms, while interest coverage is positive and significant only among below-median firms. Both specifications include firm and year fixed effects with firm-level clustered standard errors. Nevertheless, a formal coefficient-equality or interaction test is required before concluding that the two subsample coefficients are statistically different.
4.5.3. Volatility-Based Heterogeneity Analysis
Table 12 presents the split-sample fixed-effects regression results examining whether the association between pro-climate lobbying intensity and distance-to-default varies with firms’ cash-flow and earnings volatility. Columns (1) and (2) divide the sample using the pooled median of three-year cash-flow volatility, whereas Columns (3) and (4) apply the corresponding split using three-year earnings volatility. Among firms with below-median cash-flow volatility, the coefficient on pro-climate lobbying intensity is positive but statistically insignificant (β = 1.967, t = 0.389). For firms with cash-flow volatility at or above the median, the coefficient is substantially larger and statistically significant at the 1% level (β = 10.291, t = 3.610). A similar pattern appears in the earnings-volatility analysis. The coefficient is positive but insignificant among firms with below-median earnings volatility (β = 2.741, t = 0.599), whereas it is positive and significant at the 1% level among firms with earnings volatility at or above the median (β = 8.030, t = 3.039). Thus, the positive association between pro-climate lobbying intensity and financial stability is concentrated among firms experiencing greater volatility in their operating outcomes.
The economic magnitudes further illustrate this pattern. Using the full-sample standard deviation of pro-climate lobbying intensity of 0.0115, a one-standard-deviation increase is associated with an approximately 0.023-unit increase in distance-to-default among firms with below-median cash-flow volatility (1.967 × 0.0115), equivalent to approximately 0.38% of the full-sample mean distance-to-default of 6.0239. However, the underlying coefficient is statistically insignificant. For firms with cash-flow volatility at or above the median, the corresponding increase is approximately 0.118 units (10.291 × 0.0115), or approximately 1.96% of mean distance-to-default. This coefficient is significant at the 1% level and is approximately 5.23 times the below-median estimate and 1.42 times the full-sample baseline coefficient of 7.262.
In the earnings-volatility analysis, a one-standard-deviation increase in pro-climate lobbying intensity corresponds to an approximately 0.032-unit increase in distance-to-default among below-median firms (2.741 × 0.0115), equivalent to approximately 0.52% of mean distance-to-default; however, this estimate is statistically insignificant. For firms with earnings volatility at or above the median, the corresponding increase is approximately 0.092 units (8.030 × 0.0115), or approximately 1.53% of mean distance-to-default. This coefficient is significant at the 1% level, approximately 2.93 times the below-median estimate, and approximately 1.11 times the baseline coefficient. These descriptive patterns suggest that the positive association between pro-climate lobbying and financial stability is concentrated among firms experiencing greater operating volatility. Nevertheless, formal coefficient-equality or interaction tests are necessary to establish whether the differences between the volatility groups are statistically significant.
These findings are consistent with signaling theory because pro-climate lobbying may provide a more valuable signal of climate-transition preparedness when firms face greater uncertainty in their operating cash flows and earnings. When underlying financial outcomes are volatile, investors and creditors may have greater difficulty assessing firms’ future financial resilience. Costly and observable engagement in support of climate policy may therefore communicate information about firms’ regulatory preparedness, strategic adaptability, and capacity to manage transition-related risks. The findings are also consistent with stakeholder theory, as alignment with climate-conscious investors, creditors, regulators, customers, and other stakeholders may reduce exposure to regulatory, reputational, and financing shocks. These potential benefits may be particularly valuable for firms whose cash flows or earnings are relatively unstable, helping explain why the positive association between pro-climate lobbying intensity and distance-to-default is concentrated in the higher-volatility subsamples.
The control-variable estimates are broadly consistent with the baseline findings. Earnings volatility is negative and statistically significant in the high-cash-flow-volatility subsample, while cash-flow volatility is negative and significant in the high-earnings-volatility subsample. Firm size and leverage generally exhibit negative associations with distance-to-default, although their significance varies across the subsamples. ROA remains positive and statistically significant in all four specifications. Capital expenditure intensity and interest coverage are also positive and significant primarily in the higher-volatility groups. Market-to-book is positive and significant in the high-cash-flow-volatility and low-earnings-volatility subsamples, whereas PPE intensity and the current ratio remain statistically insignificant. In Columns (1) and (2), cash-flow volatility serves as the sample-partitioning variable and is therefore omitted, while earnings volatility is retained as a control. In Columns (3) and (4), earnings volatility is omitted and cash-flow volatility is retained. All specifications include firm and year fixed effects with firm-level clustered standard errors. Nevertheless, a formal coefficient-equality or interaction test is required before concluding that the lobbying coefficients differ statistically across the volatility groups. Accordingly, the results should be interpreted as evidence of volatility-based heterogeneity rather than as a formal test of mediation through cash-flow or earnings volatility.
5. Conclusion and Policy Implications
This study examines whether pro-climate lobbying intensity is associated with corporate default risk, measured primarily through distance-to-default. The findings support H1 and show that pro-climate lobbying intensity is positively and significantly associated with firms’ distance-to-default. Because a higher distance-to-default indicates greater financial stability and a lower probability of default, the results suggest that firms engaging more intensively in pro-climate lobbying tend to maintain a stronger financial position. The baseline fixed-effects estimate remains positive after controlling for firm age, size, leverage, profitability, growth opportunities, asset tangibility, liquidity, investment intensity, cash-flow volatility, earnings volatility, and interest coverage. The model also incorporates firm and year fixed effects and firm-level clustered standard errors. Economically, a one-standard-deviation increase in pro-climate lobbying intensity is associated with an approximately 0.084-unit increase in distance-to-default, equivalent to about 1.39% of the sample mean. The findings therefore indicate that corporate political engagement in support of climate policy has implications extending beyond environmental behavior and green innovation to corporate financial resilience.
The findings are consistent with signaling theory (Spence, 1973). Under information asymmetry, firms can communicate otherwise unobservable information about their quality and strategic preparedness through costly and observable actions. Pro-climate lobbying requires the commitment of financial resources, managerial attention, and political capital, making it potentially more informative than inexpensive environmental statements or symbolic climate commitments. Consistent with this argument, Leippold et al. (2024) show that pro-climate lobbyists exhibit greater green innovation, suggesting that the direction of lobbying contains information about firms’ underlying business models and preparedness for the transition to a low-carbon economy. Firms that are better positioned for regulatory and technological change may experience lower compliance uncertainty, more stable future cash flows, and lower asset-value volatility. Under the Merton (1974) structural credit-risk framework, these characteristics increase the distance between firm value and the default threshold.
The results are also consistent with stakeholder theory (Freeman, 2010). Firms depend on the continuing support of creditors, investors, regulators, customers, employees, communities, and other stakeholders. Corporate support for climate policy may strengthen relationships with increasingly climate-conscious stakeholders and demonstrate alignment between firms’ political activities and broader environmental expectations. Stronger stakeholder relationships can reduce exposure to reputational controversies, regulatory disputes, litigation, customer opposition, and financing constraints. These benefits may improve access to financial resources, reduce uncertainty, and stabilize operating cash flows, thereby lowering default risk. The findings complement evidence that green innovation is associated with lower corporate default risk through reduced cash-flow volatility and managerial risk-taking (Safiullah et al., 2024). More broadly, they extend the emerging climate-lobbying literature by showing that pro-climate political engagement is relevant not only to environmental strategy and equity-market outcomes but also to firms’ financial-distress exposure.
The additional analyses provide further support for the principal conclusion. Entropy balancing substantially improves the comparability of firms with positive pro-climate lobbying activity and firms reporting no such activity. After reweighting the control group, pro-climate lobbying intensity remains positively and significantly associated with distance-to-default, and the coefficient is similar in magnitude to the baseline estimate. This result indicates that the baseline association is not explained solely by observable differences between lobbying and non-lobbying firms. The dynamic fixed-effects model produces a similar conclusion after incorporating lagged distance-to-default. Although the coefficient becomes smaller, it remains positive and significant, suggesting that the result is not attributable merely to persistence in firms’ prior financial condition. Finally, the positive association persists when the Altman Z-score replaces distance-to-default as an alternative accounting-based measure of financial distress. Taken together, the entropy-balanced, dynamic, and alternative-measure results demonstrate that the principal conclusion is robust to observable covariate imbalance, dynamic model specification, and alternative measurement of financial stability.
The split-sample findings provide additional insight into the conditions under which pro-climate lobbying appears most financially relevant. The positive association between pro-climate lobbying intensity and distance-to-default is particularly strong among firms with environmental pillar scores at or above the sample median, whereas the coefficient is positive but statistically insignificant among firms with below-median environmental performance. The social-performance analysis produces a related pattern: the association is positive in both subsamples but substantially larger and more precisely estimated among firms with social pillar scores at or above the median. The volatility-based analyses further show that the association is positive and statistically significant among firms with cash-flow or earnings volatility at or above the median but statistically insignificant among their below-median counterparts. These patterns suggest that pro-climate lobbying may be especially informative when it is supported by substantive environmental and social performance or when firms face greater uncertainty in their operating outcomes. From a signaling perspective, lobbying may communicate a more credible signal of climate-transition preparedness when it is consistent with a firm’s underlying sustainability conduct. Such a signal may also be more valuable to investors and creditors when volatile cash flows or earnings make the firm’s future financial condition more difficult to assess. From a stakeholder perspective, firms with stronger sustainability performance may possess greater stakeholder trust and relational capital, allowing pro-climate political engagement to generate more substantial reputational, regulatory, and financing benefits. For firms experiencing greater operating volatility, credible climate-policy engagement may similarly reduce stakeholder uncertainty regarding regulatory preparedness and strategic adaptability. Nevertheless, these cross-group differences should be interpreted cautiously unless supported by formal coefficient-equality or interaction tests. Moreover, the volatility splits demonstrate heterogeneity in the association rather than establishing that cash-flow or earnings volatility mediates the relationship between pro-climate lobbying and default risk.
The study contributes to several areas of research. First, it extends the corporate climate-lobbying literature, which has primarily examined the determinants, direction, environmental consequences, and equity-market pricing of lobbying, by documenting its association with corporate default risk. Second, it contributes to the climate-finance and credit-risk literature by identifying pro-climate lobbying as a potentially informative dimension of corporate climate-transition strategy. Existing research has predominantly focused on carbon emissions, environmental performance, climate disclosure, carbon-risk management, and green innovation. The present study demonstrates that corporate political engagement may also contain information relevant to financial resilience. Third, the study provides evidence that the relationship between pro-climate lobbying and default risk depends on the broader sustainability profile of the firm. The stronger results among firms with higher environmental and social performance suggest that lobbying should not be evaluated in isolation from the firm’s underlying operations and stakeholder conduct.
The findings generate several policy implications. For regulators and policymakers, the results highlight the importance of transparent and decision-useful corporate lobbying disclosures. Existing lobbying reports identify issues and total expenditures but frequently do not disclose whether a firm supports or opposes specific climate legislation. This lack of directional information requires researchers and market participants to infer firms’ lobbying positions indirectly. Policymakers could improve transparency by requiring firms to disclose the specific legislative or regulatory positions supported, the amount spent on each issue, and the extent to which lobbying activities are consistent with publicly stated climate commitments. Greater transparency would help investors, creditors, and other stakeholders distinguish substantive pro-climate engagement from symbolic communication and identify inconsistencies between corporate climate statements and political activities.
The findings also have implications for financial regulators, creditors, rating agencies, and investors. Pro-climate lobbying may provide supplementary information about firms’ transition preparedness, regulatory positioning, and exposure to future climate-policy risks. The volatility-based splits indicate that this information may be particularly relevant when firms experience above-median cash-flow or earnings volatility. Credit analysts should therefore consider lobbying direction and intensity alongside operating volatility, leverage, profitability, liquidity, emissions, green innovation, and broader environmental and social performance. Lobbying should not be treated as a standalone indicator of credit quality, particularly because the split-sample differences remain descriptive unless confirmed by formal coefficient-equality tests. Evaluating whether political engagement is consistent with firms’ operational conduct can reduce the risk of interpreting symbolic lobbying as evidence of genuine transition preparedness.
For corporate boards and senior executives, the results emphasize aligning climate-policy engagement with environmental strategy, stakeholder commitments, and financial-risk management. This consideration may be especially important for firms with volatile cash flows or earnings, because credible and consistent lobbying may help communicate regulatory preparedness and long-term strategic resilience to capital providers. Boards should establish oversight mechanisms covering direct lobbying, external consultants, and political activity conducted through trade associations. Regular reviews should assess whether lobbying positions remain consistent with transition plans, sustainability disclosures, and risk-management objectives. Firms should also explain how their political engagement supports climate-risk management and more stable long-term operating outcomes rather than short-term regulatory advantage. Such alignment can strengthen the credibility of corporate climate commitments, enhance stakeholder trust, and reduce exposure to reputational and regulatory controversy.
The study is subject to several limitations. First, the direction of climate lobbying is inferred primarily from political contributions made by corporate executives or hired lobbyists rather than from directly disclosed positions on individual legislation. Although this approach provides a systematic classification, political affiliation may not perfectly represent the stance taken on every climate issue. Second, issue-level lobbying expenditures are estimated by proportionally allocating total report expenditure because firms do not disclose the amount spent on each issue. Third, the data focus primarily on U.S. federal lobbying and may not capture state-level political activity, international lobbying, or all indirect lobbying conducted through trade associations. Fourth, entropy balancing addresses differences in observable characteristics but cannot eliminate bias arising from unobservable factors or reverse causality. The dynamic fixed-effects analysis and alternative dependent variable strengthen the results but do not establish a definitive causal relationship. Finally, the split-sample findings reveal suggestive differences across environmental-performance, social-performance, cash-flow-volatility, and earnings-volatility groups; however, formal coefficient-equality or interaction tests are required before concluding that the estimated associations differ statistically across these groups.
Future research may address these limitations by using legislative events, regulatory shocks, or other quasi-experimental settings to strengthen causal identification. Researchers could also examine the specific channels through which pro-climate lobbying relates to default risk, including green innovation, financing costs, cash-flow volatility, stakeholder support, regulatory preparedness, and access to credit. Additional studies could investigate whether direct and trade-association lobbying have different financial consequences, whether inconsistencies between climate commitments and lobbying positions increase credit risk, and whether the findings extend to state-level lobbying, privately held firms, or firms outside the United States. Despite these limitations, the study provides consistent evidence that pro-climate lobbying intensity is positively associated with corporate financial stability and that this relationship is particularly pronounced among firms with stronger environmental and social performance.
Funding
This work was supported by North South University (NSU) under Grant Number CTRG-25-SBE-29. The funder had no role in the study design, data collection, analysis, interpretation of data, the writing of this article, or the decision to submit it for publication.
Declaration of AI Use
During the preparation of this manuscript, the authors used Claude Sonnet 5 (Anthropic) to assist with language editing and grammar correction. No artificial intelligence tools were used for data analysis, interpretation of results, or generation of scientific content. The intellectual content, analysis, and conclusions presented in this work are original to the authors, who take full responsibility for the content of this publication.
Author Contributions
Mohammad Sarwar Jahan Rekabder: Conceptualization, Methodology, Formal Analysis, Writing – Original Draft. FJ Abu Mohaimen: Conceptualization, Methodology, Writing – Original Draft, Writing – Review & Editing, Supervision. Iftear Ahmed Chowdhury: Investigation, Data Curation, Writing – Review & Editing. Hasan A. Mamun: Investigation, Data Curation, Writing – Review & Editing. Jobaida Tasnim Chowdhury: Investigation, Resources, Writing – Review & Editing.
Conflict(s) of Interest
The authors declare that they have no known competing conflicts of interest that could have appeared to influence the work reported in this paper.
Data Availability Statement
The data that support the findings of this study are available from the corresponding author upon reasonable request.
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Table 2.
Descriptive Statistics.
| Variables | Obs | Mean | Std. Dev. | Min | Max | p1 | p99 | Skew. | Kurt. |
| Distance-to-Default | 4176 | 6.0239 | 3.0099 | .1674 | 14.3188 | .5743 | 14.3188 | .5429 | 2.8618 |
| Pro Climate Intensity | 4176 | .0027 | .0115 | 0 | .0843 | 0 | .0843 | 5.5896 | 36.0574 |
| Pro Climate Intensity -Text-Based | 4176 | .0013 | .0059 | 0 | .043 | 0 | .043 | 5.6856 | 36.7612 |
| Firm Age | 4176 | 3.125 | .8054 | 0 | 4.6151 | 1.0986 | 4.585 | -.4368 | 3.4359 |
| Firm Size | 4176 | 16.1463 | 1.6357 | 10.0709 | 20.1285 | 12.0003 | 19.3946 | -.3225 | 2.8152 |
| Leverage | 4176 | .6408 | .2492 | .1763 | 2.7466 | .1763 | 1.468 | 2.1214 | 16.3482 |
| ROA | 4176 | .0424 | .0935 | -.7919 | .2746 | -.3278 | .2746 | -2.572 | 20.1456 |
| Market-to-Book | 4176 | 4.3089 | 6.1379 | .115 | 38.036 | .115 | 38.036 | 3.7084 | 18.5183 |
| PPE Intensity | 4176 | .3168 | .2579 | .0031 | .8824 | .0157 | .8824 | .6868 | 2.1186 |
| Current Ratio | 4176 | 1.8132 | 1.3388 | .4201 | 11.7352 | .4223 | 7.2097 | 3.1048 | 17.4897 |
| Capex Intensity | 4176 | .0454 | .0389 | 0 | .2068 | .0024 | .1936 | 1.6858 | 6.2794 |
| Cash Flow Volatility | 4176 | .0313 | .0339 | .0013 | .2188 | .0015 | .1948 | 2.7796 | 13.0632 |
| Earnings Volatility | 4176 | .0327 | .0444 | .0001 | .2727 | .0008 | .2554 | 3.1357 | 14.5376 |
| Interest Coverage | 4176 | 14.7666 | 33.7856 | -11.8162 | 188.5343 | -11.8162 | 188.5343 | 3.9258 | 19.0439 |
| Social Score | 3668 | 59.0388 | 22.0396 | 1.24 | 98.2 | 13.34 | 95.94 | -.2588 | 2.0893 |
| Environmental Score | 3669 | 50.4572 | 27.8347 | 0 | 98.55 | 0 | 93.1 | -.3943 | 1.9913 |
Table 3.
Multicollinearity Diagnostic Test Using Variance Inflation Factors.
| Variable | VIF | Tolerance (1/VIF) |
|---|---|---|
| Pro-Climate Lobbying Intensity (Text-Based) | 2.71 | 0.3688 |
| Pro-Climate Lobbying Intensity | 2.70 | 0.3704 |
| PPE Intensity | 2.05 | 0.4875 |
| Capex Intensity | 1.83 | 0.5458 |
| Earnings Volatility (3-Year) | 1.70 | 0.5865 |
| Cash-Flow Volatility (3-Year) | 1.59 | 0.6290 |
| Current Ratio | 1.47 | 0.6789 |
| ROA | 1.38 | 0.7230 |
| Interest Coverage | 1.37 | 0.7323 |
| Leverage | 1.35 | 0.7422 |
| Firm Size | 1.35 | 0.7434 |
| Market-to-Book | 1.09 | 0.9211 |
| Firm Age | 1.04 | 0.9575 |
| Mean VIF | 1.66 |
Notes: This table reports variance inflation factor (VIF) values for the comprehensive and text-based measures of pro-climate lobbying intensity and the control variables. Tolerance is calculated as the reciprocal of VIF. The mean VIF is 1.66, and the maximum individual VIF is 2.71. All values are below the conservative threshold of 5, indicating that multicollinearity is not a serious concern.
Table 4.
Pro-Climate Lobbying and Corporate Default Risk: Baseline Evidence.
| (1) | |
| Distance-to-Default | |
| Pro Climate Intensity | 7.262*** |
| (2.803) | |
| Firm Age | 0.117 |
| (0.492) | |
| Firm Size | -0.515*** |
| (-3.556) | |
| Leverage | -1.765*** |
| (-4.352) | |
| ROA | 3.373*** |
| (5.562) | |
| Market-to-Book | 0.020*** |
| (3.374) | |
| PPE Intensity | -0.575 |
| (-0.806) | |
| Current Ratio | 0.035 |
| (0.810) | |
| Capex Intensity | 5.485*** |
| (3.249) | |
| Cash Flow Volatility | -4.220*** |
| (-3.027) | |
| Earnings Volatility | -5.324*** |
| (-4.592) | |
| Interest Coverage | 0.007*** |
| (3.886) | |
| Constant | 14.921*** |
| (6.064) | |
| Observations | 4176 |
| R-squared | 0.816 |
| Firm FE | Yes |
| Year FE | Yes |
| Firm Level Cluster SE | Yes |
| Notes: This table reports baseline fixed-effects regressions examining the association between pro-climate lobbying intensity and corporate default risk. The dependent variable is Distance-to-Default (DTD), where higher values indicate lower default risk and greater financial stability. Pro Climate Intensity is measured as pro-climate lobbying expenditure scaled by total assets. All continuous variables are winsorized at the 1st and 99th percentiles to mitigate the influence of outliers. Column (1) reports fixed-effects estimates with standard errors clustered at the firm level. t-statistics are reported in parentheses. ***, **, and * denote statistical significance at the 1%, 5%, and 10% levels, respectively. | |
Table 5.
Balance Diagnostics for Entropy Balancing: Treatment and Control Group Comparison.
| Variable | Before Balancing | After Balancing | ||
|---|---|---|---|---|
| Treatment Mean | Control Mean | Treatment Mean | Control Mean | |
| Firm Age | 3.161 | 3.124 | 3.161 | 3.161 |
| Firm Size | 16.97 | 15.97 | 16.97 | 16.97 |
| Leverage | 0.652 | 0.639 | 0.652 | 0.652 |
| ROA | 0.040 | 0.039 | 0.040 | 0.039 |
| Market-to-Book | 3.994 | 3.323 | 3.994 | 3.990 |
| PPE Intensity | 0.354 | 0.304 | 0.354 | 0.354 |
| Current Ratio | 1.725 | 1.847 | 1.725 | 1.726 |
| Capex Intensity | 0.046 | 0.045 | 0.046 | 0.046 |
| Cash Flow Volatility | 0.030 | 0.032 | 0.030 | 0.030 |
| Earnings Volatility | 0.031 | 0.034 | 0.031 | 0.031 |
| Interest Coverage | 14.79 | 14.24 | 14.79 | 14.80 |
| Notes: This table reports covariate balance before and after entropy balancing. The treatment group includes firms with positive pro-climate lobbying intensity, and the control group includes firms with no pro-climate lobbying activity. The results show that entropy balancing improves the similarity of observable characteristics between the two groups. | ||||
Table 6.
Entropy Balancing Analysis of Pro-Climate Lobbying and Corporate Default Risk.
| (1) | |
| Distance-to-Default | |
| Pro Climate Intensity | 6.885** |
| (2.185) | |
| Firm Age | 0.187 |
| (0.724) | |
| Firm Size | -0.463*** |
| (-2.661) | |
| Leverage | -2.408*** |
| (-3.772) | |
| ROA | 3.149*** |
| (3.902) | |
| Market-to-Book | 0.016** |
| (2.044) | |
| PPE Intensity | -0.123 |
| (-0.126) | |
| Current Ratio | 0.028 |
| (0.467) | |
| Capex Intensity | 7.251*** |
| (2.940) | |
| Cash Flow Volatility | -4.120** |
| (-2.131) | |
| Earnings Volatility | -5.047*** |
| (-3.027) | |
| Interest Coverage | 0.005 |
| (1.423) | |
| Constants | 14.490*** |
| (4.858) | |
| Observations | 4176 |
| R-squared | 0.819 |
| Firm FE | Yes |
| Year FE | Yes |
| Entropy Balanced | Yes |
| Notes: This table reports entropy-balanced fixed-effects regressions examining the association between pro-climate lobbying intensity and corporate default risk. Entropy balancing (Hainmueller, 2012) is employed to reweight observations and improve covariate balance between firms with positive pro-climate lobbying activity (treatment group) and firms with no pro-climate lobbying activity (control group). The dependent variable is Distance-to-Default (DTD), where higher values indicate lower default risk and greater financial stability. All continuous variables are winsorized at the 1st and 99th percentiles to mitigate the influence of outliers. Both specifications include firm and year fixed effects. t-statistics are reported in parentheses. ***, **, and * indicate statistical significance at the 1%, 5%, and 10% levels, respectively. | |
Table 7.
Dynamic Fixed-Effects Regression Results: Pro-Climate Lobbying Intensity and Distance-to-Default.
Table 7.
Dynamic Fixed-Effects Regression Results: Pro-Climate Lobbying Intensity and Distance-to-Default.
| (2) | |
| Distance-to-Default | |
| L Distance-to-Default | 0.342*** |
| (19.180) | |
| Pro Climate Intensity | 5.353** |
| (2.388) | |
| Firm Age | 0.079 |
| (0.441) | |
| Firm Size | -0.534*** |
| (-4.834) | |
| Leverage | -1.375*** |
| (-4.472) | |
| ROA | 2.860*** |
| (5.808) | |
| Market-to-Book | 0.011** |
| (2.279) | |
| PPE Intensity | -0.143 |
| (-0.249) | |
| Current Ratio | 0.021 |
| (0.509) | |
| Capex Intensity | 2.030 |
| (1.447) | |
| Cash Flow Volatility | -3.502*** |
| (-2.935) | |
| Earnings Volatility | -4.290*** |
| (-4.528) | |
| Interest Coverage | 0.006*** |
| (3.484) | |
| Constant | 13.133*** |
| (7.014) | |
| Observations | 4168 |
| R-squared | 0.840 |
| Firm FE | Yes |
| Year FE | Yes |
| Lagged DV | Yes |
| Firm-Level clustered SE | Yes |
| Notes: This table reports dynamic fixed-effects regressions examining the association between pro-climate lobbying intensity and corporate default risk. The dependent variable is Distance-to-Default (DTD), where higher values indicate lower default risk and greater financial stability. Column (1) reports dynamic fixed-effects estimates, while Column (2) reports dynamic fixed-effects estimates with firm-level clustered standard errors. All continuous variables are winsorized at the 1st and 99th percentiles. t-statistics are reported in parentheses. ***, **, and * denote statistical significance at the 1%, 5%, and 10% levels, respectively. | |
Table 8.
Pro-Climate Lobbying Intensity and Financial Distress Risk: Evidence Using Altman Z-Score.
| (1) | |
| Altman Z Score | |
| Pro Climate Intensity | 4.900* |
| (1.661) | |
| Firm Age | -0.097 |
| (-0.640) | |
| Firm Size | -1.000*** |
| (-10.818) | |
| Leverage | -3.344*** |
| (-13.896) | |
| ROA | 6.951*** |
| (15.287) | |
| Market-to-Book | 0.023*** |
| (4.193) | |
| PPE Intensity | 0.670 |
| (1.168) | |
| Current Ratio | 0.696*** |
| (16.158) | |
| Capex Intensity | 1.290 |
| (0.914) | |
| Cash Flow Volatility | -0.396 |
| (-0.323) | |
| Earnings Volatility | -3.490*** |
| (-3.604) | |
| Interest Coverage | 0.017*** |
| (14.062) | |
| Constant | 19.894*** |
| (12.315) | |
| Observations | 4194 |
| R-squared | 0.839 |
| Firm FE | Yes |
| Year FE | Yes |
Table 9.
Text-Based Pro-Climate Lobbying Intensity and Distance-to-Default.
| (1) | |
| Distance-to-Default | |
| Pro Climate Intensity _Text -Based | 10.496** |
| (2.115) | |
| Firm Age | 0.116 |
| (0.486) | |
| Firm Size | -0.511*** |
| (-3.541) | |
| Leverage | -1.761*** |
| (-4.312) | |
| ROA | 3.415*** |
| (5.660) | |
| Market-to-Book | 0.021*** |
| (3.460) | |
| PPE Intensity | -0.599 |
| (-0.838) | |
| Current Ratio | 0.035 |
| (0.814) | |
| Capex Intensity | 5.470*** |
| (3.237) | |
| Cash Flow Volatility | -4.328*** |
| (-3.115) | |
| Earnings Volatility | -5.284*** |
| (-4.553) | |
| Interest Coverage | 0.007*** |
| (3.901) | |
| Constant | 14.865*** |
| (6.062) | |
| Observations | 4176 |
| R-squared | 0.816 |
| Firm FE | Yes |
| Year FE | Yes |
| Cluster | Firm level |
| Notes: The dependent variable is distance-to-default. Pro Climate Text amount scaled by Total Assets is the annual pro-climate lobbying amount identified solely from climate keywords in lobbying-report issue descriptions and scaled by total assets. The model includes firm and year fixed effects. t-statistics based on firm-level clustered standard errors are reported in parentheses. *** p < 0.01, ** p < 0.05, * p < 0.10. | |
Table 10.
Environmental Performance and the Association Between Pro-Climate Lobbying Intensity and Distance-to-Default.
Table 10.
Environmental Performance and the Association Between Pro-Climate Lobbying Intensity and Distance-to-Default.
| (1) | (2) | |
| Distance-to-Default | Distance-to-Default | |
| Below Median | Above Median | |
| Pro Climate Intensity | 4.883 | 16.921*** |
| (1.252) | (5.272) | |
| Firm Age | -0.929** | 0.215 |
| (-2.112) | (0.691) | |
| Firm Size | -0.136 | -0.778*** |
| (-0.556) | (-3.249) | |
| Leverage | 0.176 | -2.109*** |
| (0.280) | (-3.740) | |
| ROA | 3.790*** | 5.457*** |
| (4.064) | (4.947) | |
| Market-to-Book | 0.017* | 0.018** |
| (1.955) | (2.283) | |
| PPE Intensity | -0.335 | -1.379 |
| (-0.341) | (-1.417) | |
| Current Ratio | 0.064 | 0.149* |
| (1.159) | (1.843) | |
| Capex Intensity | 5.801*** | 7.743*** |
| (2.797) | (2.600) | |
| Cash Flow Volatility | -2.798 | -6.845** |
| (-1.495) | (-2.463) | |
| Earnings Volatility | -5.007*** | -8.444*** |
| (-3.199) | (-3.548) | |
| Interest Coverage | 0.009*** | 0.007* |
| (3.212) | (1.789) | |
| Constant | 9.977** | 20.462*** |
| (2.416) | (4.802) | |
| Observations | 1471 | 2107 |
| R-squared | 0.834 | 0.829 |
| Firm FE | Yes | Yes |
| Year FE | Yes | Yes |
| Cluster | Firm level | Firm level |
| Notes: This table reports split-sample fixed-effects regressions examining whether the association between pro-climate lobbying intensity and corporate default risk varies across firms with different levels of environmental performance. The dependent variable is Distance-to-Default (DTD), where higher values indicate lower default risk and greater financial stability. The sample is divided based on the median value of the environmental pillar score. Column (1) reports results for firms with Environmental Scores below the median, while Column (2) reports results for firms with Environmental Scores equal to or above the median. All specifications include firm and year fixed effects, with standard errors clustered at the firm level. All continuous variables are winsorized at the 1st and 99th percentiles. t-statistics are reported in parentheses. ***, **, and * indicate statistical significance at the 1%, 5%, and 10% levels, respectively. | ||
Table 11.
Social Performance and the Association Between Pro-Climate Lobbying Intensity and Distance-to-Default.
Table 11.
Social Performance and the Association Between Pro-Climate Lobbying Intensity and Distance-to-Default.
| (1) | (2) | |
| Distance-to-Default | Distance-to-Default | |
| Below Median | Above Median | |
| Pro Climate Intensity | 6.067* | 14.559*** |
| (1.760) | (3.165) | |
| Firm Age | -0.160 | 0.248 |
| (-0.337) | (0.727) | |
| Firm Size | -0.550* | -0.787*** |
| (-1.746) | (-3.423) | |
| Leverage | -0.538 | -1.835*** |
| (-0.834) | (-3.706) | |
| ROA | 3.525*** | 5.999*** |
| (3.511) | (5.476) | |
| Market-to-Book | 0.004 | 0.027*** |
| (0.561) | (3.582) | |
| PPE Intensity | -0.524 | -0.903 |
| (-0.540) | (-0.918) | |
| Current Ratio | 0.057 | 0.127 |
| (0.894) | (1.476) | |
| Capex Intensity | 4.779*** | 7.460** |
| (2.654) | (2.546) | |
| Cash Flow Volatility | -1.045 | -8.176*** |
| (-0.588) | (-2.887) | |
| Earnings Volatility | -5.309*** | -7.325*** |
| (-3.020) | (-3.505) | |
| Interest Coverage | 0.008** | 0.006 |
| (2.319) | (1.649) | |
| Constant | 14.778*** | 20.134*** |
| (2.921) | (4.899) | |
| Observations | 1513 | 2056 |
| R-squared | 0.834 | 0.828 |
| Firm FE | Yes | Yes |
| Year FE | Yes | Yes |
| Cluster | Firm level | Firm level |
| Notes: This table reports split-sample fixed-effects regressions examining whether the association between pro-climate lobbying intensity and corporate default risk varies across firms with different levels of social performance. The dependent variable is Distance-to-Default (DTD), where higher values indicate lower default risk and greater financial stability. The sample is divided based on the median value of the firm level social pillar score. Column (1) reports results for firms with Social Scores below the median, while Column (2) reports results for firms with Social Scores equal to or above the median. All specifications include firm and year fixed effects, with standard errors clustered at the firm level. All continuous variables are winsorized at the 1st and 99th percentiles. t-statistics are reported in parentheses. ***, **, and * indicate statistical significance at the 1%, 5%, and 10% levels, respectively. | ||
Table 12.
Volatility-Based Split-Sample Analyses: Pro-Climate Lobbying Intensity and Distance-to-Default. Dependent variable: Distance-to-Default (DTD).
Table 12.
Volatility-Based Split-Sample Analyses: Pro-Climate Lobbying Intensity and Distance-to-Default. Dependent variable: Distance-to-Default (DTD).
| Cash-Flow Volatility Split | Earnings Volatility Split | |||
|---|---|---|---|---|
| (1) Below median |
(2) At/above median | (3) Below median | (4) At/above median | |
| Pro-Climate Lobbying Intensity | 1.967 | 10.291*** | 2.741 | 8.030*** |
| (0.389) | (3.610) | (0.599) | (3.039) | |
| Firm Age | 0.225 | -0.112 | 0.340 | -0.201 |
| (0.673) | (-0.371) | (1.044) | (-0.748) | |
| Firm Size | -0.638** | -0.321** | -0.127 | -0.401*** |
| (-2.464) | (-2.198) | (-0.321) | (-2.914) | |
| Leverage | -2.553*** | -1.460*** | -1.214 | -1.599*** |
| (-4.594) | (-3.137) | (-1.626) | (-3.567) | |
| ROA | 7.726*** | 2.108*** | 25.167*** | 2.482*** |
| (3.178) | (3.553) | (7.203) | (4.368) | |
| Market-to-Book | 0.015 | 0.016** | 0.038*** | 0.008 |
| (1.393) | (2.002) | (3.842) | (1.105) | |
| PPE Intensity | 0.703 | -0.678 | -0.148 | -0.702 |
| (0.583) | (-0.823) | (-0.103) | (-0.957) | |
| Current Ratio | -0.005 | 0.033 | 0.094 | 0.034 |
| (-0.071) | (0.686) | (1.109) | (0.707) | |
| Capital Expenditure Intensity | 4.764 | 4.571** | 3.361 | 7.101*** |
| (1.603) | (2.476) | (0.969) | (3.998) | |
| Earnings Volatility | -1.692 | -6.032*** | _ | _ |
| (-0.663) | (-5.139) | _ | _ | |
| Interest Coverage | 0.004 | 0.008*** | 0.001 | 0.007*** |
| (0.977) | (3.724) | (0.541) | (2.946) | |
| Cash-Flow Volatility | _ | _ | -2.374 | -5.003*** |
| _ | _ | (-0.699) | (-3.798) | |
| Constant | 17.363*** | 11.650*** | 7.057 | 13.125*** |
| (3.916) | (4.731) | (1.084) | (5.481) | |
| Observations | 1937 | 2073 | 1682 | 2338 |
| R-squared | 0.846 | 0.830 | 0.845 | 0.832 |
| Firm FE | Yes | Yes | Yes | Yes |
| Year FE | Yes | Yes | Yes | Yes |
| Cluster | Firm level | Firm level | Firm level | Firm level |
| Notes: Columns (1) and (2) report firm and year fixed-effects regressions for observations below and at/above the pooled median of three-year cash-flow volatility, respectively; cash-flow volatility is omitted from these specifications, while earnings volatility is retained. Columns (3) and (4) apply the corresponding split using three-year earnings volatility; earnings volatility is omitted, while cash-flow volatility is retained. Higher DTD indicates lower default risk and greater financial stability. All continuous variables are winsorized at the 1st and 99th percentiles. Standard errors are clustered at the firm level. t-statistics are reported in parentheses. ***, **, and * denote significance at the 1%, 5%, and 10% levels, respectively. | ||||
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