Purpose

This study investigates the influence of geopolitical risk on firm investment inefficiency and explore the moderating role of corporate governance on the above relationship using a dataset of 43,182 observations from Indian-listed firms between 2002 and 2023.

Design/methodology/approach

The study employs pooled ordinary least squares regression models with firm and year fixed effects. Robustness tests include entropy balancing and alternative proxies, quantile regression and endogeneity checks via two-stage least squares and Oster (2019) omitted variables test.

Findings

The results shows that heightened geopolitical risk significantly worsens investment inefficiency, increasing both overinvestment and underinvestment, while strong corporate governance mitigates these effects. Cross-sectional analysis shows the impact is more pronounced in firms with lower cash holdings, more irreversible investments, fewer financial constraints, those operating in industries with higher exposure to geopolitical risk and those in competitive industries.

Practical implications

The study highlights the positive impact of geopolitical risk on investment inefficiency, emphasizing the need for financial support mechanisms such as subsidies and credit facilities. Firms should adopt proactive investment strategies while strengthening corporate governance, disclosure and transparency to reduce information asymmetry. Investors should prioritize firms with strong governance, and regulators must promote competition-friendly policies to ensure efficient capital allocation under high geopolitical risk.

Originality/value

This study advances corporate finance literature by providing new evidence regarding the impact of geopolitical risk on investment inefficiency. It is among the first studies to show that strong corporate governance mitigates adverse effects of geopolitical risk. Additionally, it examines how cash holdings, irreversible investments, financial constraints and market competition shape the geopolitical risk–investment inefficiency relationship.

Geopolitical risk (GPR) encompasses uncertainties and potential disturbances triggered by conflicts such as wars, terrorist attacks, and interstate tensions. This risk factor significantly impact global economic stability and international relations (Caldara and Iacoviello, 2022). In recent decades, GPR has intensified worldwide, due to critical events like the escalating US-China trade tensions, and the Russian invasion of Ukraine, among others. GPR has been found to have considerable impact on macroeconomic factors such as oil price volatility (Lee et al., 2021), gold prices (Gkillas et al., 2020), stock markets (Zhang et al., 2023), inflation (Yang et al., 2023), and global supply chains (Asadollah et al., 2024). Furthermore, GPR influences financial policies such as cash holding (Wang et al., 2021), leverage decisions (Khoo and Cheung, 2021; Kotcharin and Maneenop, 2020) and payout policies (Adra et al., 2023). Notably, some research indicates that heightened financial frictions caused by GPR can reduce corporate investments (Dissanayake et al., 2018; Caldara and Iacoviello, 2022; Lai et al., 2023; Rumokoy et al., 2023). However, despite extensive studies on the influence of GPR on corporate finance policies, no empirical studies examined the specific association between GPR and investment inefficiency, which this study addresses, focusing on underinvestment and overinvestment.

Investment is a crucial driver of economic development at both micro and macro levels, influencing firm value creation and national growth and prosperity (Le and Tran, 2021). However, prior literature suggests that various market frictions, such as asymmetry of information and agency conflict, often cause companies to diverge from the optimal level of investment (Lara et al., 2016), leading to investment inefficiencies in the form of overinvestment (excessive investment beyond optimal levels) and underinvestment (less investment than anticipated) (Akron et al., 2022). Agency theory suggests that management in companies with excess free cash flow (FCF) may be involved in non-value-maximizing investments for personal benefit, leading to overinvestment (Jensen and Meckling, 1976). Conversely, information asymmetry increases the cost of external financing, causing underinvestment in financially constrained firms (Chen et al., 2017).

Given the economic significance of investment, understanding the determinants of investment inefficiency is crucial for helping firms make optimal investment decisions. While a number of prior studies primarily focused on firm-level factors affecting investment inefficiency—including financial reporting quality (Biddle et al., 2009), accounting conservatism (Lara et al., 2016), maturity of debt (Cutillas Gomariz and Ballesta, 2014; Yadav and Yadav, 2024a), ownership structure (Chen et al., 2017), corporate social responsibility (CSR) initiatives (Benlemlih and Bitar, 2018) and corporate governance (Yadav and Yadav, 2024b) - less attention has been paid to macro-level factors. Some recent studies examining the role of macro-level determinants of investment inefficiency such as macroeconomic uncertainty (Irawan and Okimoto, 2021), economic policy uncertainty (EPU) in the power and energy sector (Hou et al., 2021), the world uncertainty index (WUI) (Akron et al., 2022), EPU in the small and medium enterprises sector (Hamza et al., 2024), and oil price uncertainty (OPU) (Yang et al., 2024). These studies collectively underscore the significance of macroeconomic forces in shaping efficient investment decisions. Among these uncertainties, GPR stands out as distinct. Unlike economic and financial uncertainties, GPR primarily concerns the adverse effects of geopolitical events on economic stability. Despite GPR's recognized importance, its influence on investment inefficiency and overinvestment remains unknown in the prior literature. Therefore, this study examines how GPR influences investment inefficiency, focusing on both overinvestment and underinvestment.

GPR influences investment inefficiency through several key mechanisms and channels. First, prior research shows that GPR heightens financial constraints and information asymmetry, thereby raising operational risks and increasing the cost of capital, debt, and equity (Nguyen and Thuy, 2023). This restricts firms' access to external financing as investors demand higher returns and stringent lending terms to mitigate default risks (Quagliariello, 2009), leading to underinvestment in profitable projects. Further, agency theory and real options theory explain that under uncertain conditions, managers often adopt risk-averse behavior, delaying or avoiding investments to safeguard their positions (Bertrand and Mullainathan, 2003; Bernanke, 1983; Dixit and Pindyck, 1994). Consequently, GPR-induced uncertainty leads to underinvestment as firms wait for clearer conditions before committing to capital expenditures. Second, GPR can also drive overinvestment, often stemming from managerial overconfidence and agency issues. Managers may allocate resources to low-value projects, resulting in asset misallocation and inefficiencies, especially when firms accumulate excess cash and face reduced scrutiny (Wang et al., 2021). This can result in the misallocation of assets, where increased investments fail to generate proportional growth (Wang et al., 2016). Empirical evidence supports this pattern of overinvestment during times of macroeconomic uncertainty, particularly in sectors like wind power (Liu, 2013), research and development (Ahuja and Novelli, 2017), and resource industries (Irawan and Okimoto, 2021). Thus, while GPR increases financial constraints and leads to underinvestment, it also fosters managerial discretion and overinvestment in uncertain environments. Both dynamics contribute to overall investment inefficiency, with firms either missing opportunities for growth or misallocating resources to projects that fail to deliver value.

We further explore how corporate governance (CG) moderates the effects of GPR on investment inefficiency. Given GPR’s destabilizing effects, it is essential to identify factors that mitigate its adverse effects on firm-level investment decisions—an area that has received limited attention. We propose that robust CG serves as a key mechanism for controlling and monitoring firms’ investment decisions during periods of heightened uncertainty. We believe that robust CG can mitigate GPR’s positive impact on investment inefficiency through several mechanisms. First, high-quality CG improves transparency and disclosure, which allows investors to make informed decisions. This reduces information asymmetry and alleviates financial constraints, facilitating better access to capital and lowering financing costs, even during periods of geopolitical uncertainty (Black et al., 2017). As a result, robust CG helps mitigate underinvestment by enabling more efficient capital allocation. Second, strong CG mitigates agency conflicts by curbing managerial tendencies toward overinvestment, particularly in firms with excess FCF (Yadav and Yadav, 2024b). During periods of heightened GPR, when external oversight may weaken, CG strengthens internal monitoring and curbs opportunistic behaviors, such as empire-building, by ensuring that managerial decisions face greater scrutiny (Rutherford et al., 2007). This reduces the likelihood of overinvestment. Lastly, firms with robust CG maintain a better reputation among investors, signaling accountability, transparency, and stability. This reputational strength helps retain investor confidence during geopolitical shocks, as high-CG firms are better equipped to manage risks and maintain performance (Black et al., 2017). Consequently, effective CG reduces firms' vulnerability to external shocks, including those arising from GPR, by improving capital allocation and risk management. Based on the above arguments, we contend that strong CG moderates the influence of GPR on investment inefficiency by promoting better oversight, reducing risk, and facilitating more informed investment decisions.

This research is focused on Indian firms due to the significant impact of GPR on the Indian economy, which is shaped by various global and domestic factors. First, in an interview with Nikkei Asia, Reserve Bank of India's (RBI) the then Governor Shri. Shaktikanta Das underlined the growing complexity of policy formulation due to geopolitical tensions [1]. He emphasized that global geopolitical conflicts fragment Indian economy, disrupt supply chains, and hinder growth. Despite India's projected rise to be the third-largest economy by 2027, it faces external pressures from global economic slowdowns, trade tensions, and capital flow disruptions, all threatening exports and access to capital. This underscores the importance of studying how GPR can destabilize investment flows in India. Second, a KPMG (2023) report reveals that both Indian and global chief executive officers (CEOs) perceive geopolitics as a major threat to business growth, with 14% of Indian CEOs identifying it as their greatest concern, compared to 18% globally. Additionally, 55% (versus 63% globally) of Indian CEOs believe geopolitical conflicts could negatively impact their organizations in the next three years, reflecting growing concerns about the impact of regional and global tensions on business operations. Third, GPR in India has increased by 27% above its 2011–2019 average [2], leading to capital outflows, declining equity markets, and rising bond yields. These factors worsen financing conditions, raising firm costs and potentially delaying or postponing investments. GPR also redirects foreign investments from emerging markets like India to developed economies, highlighting its potential to amplify corporate investment inefficiencies (Caldara and Iacoviello, 2022). Fourth, the Russia-Ukraine conflict has exacerbated inflation in India through supply chain disruptions (Maurya et al., 2023), prompting the RBI to raise lending rates to curb inflation. While this is a common central bank response, it inadvertently raises borrowing costs, discouraging new capital investments and negatively impacting firm-level investment efficiency. Fifth, India’s domestic geopolitical tensions, including its strategic disputes with China in the Himalayan region and long-standing tensions with Pakistan over Kashmir and cross-border terrorism, further complicate the country’s economic outlook. Additionally, India faces strategic uncertainty from broader United States (US)-China trade tensions as it balances its traditional alignment with the US and its reliance on China as a major trading partner. Internal and regional geopolitical dynamics, including strained relations with neighboring countries like Nepal and Sri Lanka, contribute to financial market volatility, further exacerbating uncertainty in equity markets and corporate decision-making. Given these factors, the elevated GPR in India significantly impacts economic activity and financing conditions, necessitating a closer examination of its influence on investment inefficiency.

To address gaps in the existing literature, this study utilizes a pooled ordinary least squares (OLS) method on a panel dataset of 3,943 non-financial listed firms in India from 2002 to 2023, comprising 43,182 firm-year observations. We measure GPR by employing the index established by Caldara and Iacoviello (2022), while investment inefficiency is assessed through the residual approach of Biddle et al. (2009). Our findings indicate that heightened GPR significantly exacerbates inefficient investments, both in terms of underinvestment and overinvestment. These results align with theoretical frameworks grounded in information asymmetry, real options theory, and agency theory. Moreover, companies with stronger CG structures demonstrate greater resilience to GPR-induced shocks, demonstrating the moderating effect of CG in lessening the impact of GPR uncertainty on investment inefficiency. Our results remain robust to alternative proxies for GPR, investment inefficiency and quantile regression approach. We address potential endogeneity through firm fixed effects, two-stage least squares (2SLS), two-step system generalized method of moments (2S-SGMM) techniques, Oster (2019) test for omitted variable bias and the incremental effect of GPR. Additionally, we apply entropy balancing to mitigate sample selection bias. Cross-sectional analysis further reveals that the influence of GPR on investment inefficiency is more pronounced for firms with lower degree of cash holdings, more irreversible investments, and that are financially unconstrained, those operating in industries with higher exposure to geopolitical risk and operate in highly competitive industries.

This investigation makes several key contributions. First, while earlier research has largely investigated the influence of GPR on macroeconomic variables, underinvestment and capital investments in terms of scale (Gkillas et al., 2020; Lee et al., 2021; Yang et al., 2023; Dissanayake et al., 2018; Caldara and Iacoviello, 2022), our investigation adopts a novel approach by investigating how GPR affects investment inefficiency, specifically through sub-samples of underinvestment and overinvestment. This investigation contributes to the earlier works on GPR by examining the association between GPR and corporate investment decisions. Second, prior research on investment inefficiency determinants has predominantly concentrated on firm (micro) factors, including debt maturity, financial reporting quality, CG, and accounting conservatism (Biddle et al., 2009; Lara et al., 2016; Yadav and Yadav, 2024a). While recent studies have begun to explore macro-level determinants like macroeconomic uncertainty, EPU, WUI, and OPU (Irawan and Okimoto, 2021; Hou et al., 2021; Akron et al., 2022; Yang et al., 2024), the specific impact of GPR on investment inefficiency and overinvestment remains largely unexplored. Therefore, this investigation contributes to the existing literature on the macroeconomic determinants of investment inefficiency by exploring the association between GPR and investment inefficiency. Finally, this study contributes to the CG literature by demonstrating how strong governance practices can mitigate the positive influences of GPR on investment inefficiency of Indian companies. Despite previous research indicating that robust CG diminishes asymmetry of information and agency concern through effective monitoring and financing functions (Kanagaretnam et al., 2007; Rutherford et al., 2007; Saragih, 2024; Yadav and Yadav, 2024a, b), this area, particularly in emerging economies, remains underexplored. By analyzing the moderating role of CG, this paper enriches the literature on how firms can buffer themselves against external risks, particularly in volatile geopolitical environments.

The structure of the study is ordered as follows: Section 2 formulates the hypotheses of the study. Section 3 presents research design. Section 4 describes the empirical analysis. Section 5 addresses potential endogeneity concerns. Section 6 discusses robustness checks. Section 7 explores cross-sectional analysis, while Section 8 discusses policy implications and concludes the study.

Geopolitical risk (GPR) arises from adverse events or tensions among states, threatening the peaceful course of international relations and contributing to global market instability (Caldara and Iacoviello, 2022). Since 2013, the systemic risk barometer survey conducted by the Depository Trust and Clearing Corporation (DTCC) has consistently identified GPR as one of the top five systemic risks, emphasizing its significant implications for the stability, safety, and resilience of the global financial system (DTCC, 2021). The introduction of the GPR index developed by Caldara and Iacoviello (2022), has facilitated a more rigorous empirical examination of its influence on macro and micro-level factors (Lee et al., 2021; Gkillas et al., 2020; Zhang et al., 2023; Kotcharin and Maneenop, 2020; Adra et al., 2023; Wang et al., 2021). Notably, there is growing evidence that GPR reduces corporate investment due to increased financial frictions (Dissanayake et al., 2018; Le and Tran, 2021; Caldara and Iacoviello, 2022; Lai et al., 2023; Rumokoy et al., 2023).

Investment serves as a vital driver of economic development at both micro and macro levels, affecting not only firm performance and value creation but also national growth and prosperity (Le and Tran, 2021). However, various market frictions, such as asymmetry of information and agency concerns, can lead companies to depart from ideal investment levels, resulting in inefficient investment that includes overinvestment or underinvestment (Lara et al., 2016). GPR significantly causes deviation from optimal investment through several mechanisms. First, financial constraints and information asymmetry are critical channels through which GPR exacerbates investment inefficiency. Rising geopolitical tensions elevate uncertainty, amplifying the asymmetry of information between firms and external investors. This often compels banks to raise interest rates and reduce lending volumes, increasing firms' cost of debt as compensation for the heightened default risk associated with uncertainty (Nguyen and Thuy, 2023; Kotcharin and Maneenop, 2020). Moreover, heightened GPR further increase the equity cost (Pástor and Veronesi, 2013). Thus, firms may find it increasingly challenging to finance profitable projects, raising the likelihood of underinvestment.

Second, agency theory posits that managers often prefer to maintain a “quiet life,” avoiding decisions that could increase the company’s risk exposure and endanger their professional standing or job security (Bertrand and Mullainathan, 2003). In the face of high GPR, managers may exhibit risk-averse behavior, opting to delay or postpone investment decisions. Real options theory supports this perspective, suggesting that investment is often irreversible due to adjustment costs, prompting firms to postpone decisions until uncertainties are resolved (Bernanke, 1983; Gulen and Ion, 2016). Consequently, elevated GPR constrains investment and exacerbates underinvestment as firms defer capital expenditures until uncertainties are resolved. Lastly, GPR can also drive overinvestment due to managerial overconfidence and agency issues (Huang et al., 2011; Malmendier and Tate, 2005). In uncertain times, overconfident managers may overinvest in low-value projects and justify these decisions as a defense against external shocks, especially when external oversight weakens. This results in asset misallocation and inefficiencies, where increased investment fails to generate proportional growth (Wang et al., 2016). Moreover, during heightened geopolitical risks, firms may accumulate excess cash (Wang et al., 2021) while facing reduced scrutiny, allowing managers to pursue self-serving projects misaligned with shareholder interests. Empirical research has shown that uncertain future policies can significantly increase overinvestment behavior (Liu, 2013; Ahuja and Novelli, 2017; Wang et al., 2016; Irawan and Okimoto, 2021). Recently, Nguyen et al. (2025) show that GPR negatively impacts investment efficiency among US firms. Their study further reveals that heightened GPR tends to exacerbate underinvestment while simultaneously reducing instances of overinvestment.

In summary, GPR constrains external financing options, leading to underinvestment while simultaneously creating opportunities for overinvestment through agency conflicts and managerial discretion during periods of reduced oversight. Based on the preceding discussion, we propose the following hypotheses:

H1.

Geopolitical risk positively affects investment inefficiency.

H1a.

Geopolitical risk positively affects overinvestment.

H1b.

Geopolitical risk positively affects underinvestment.

While GPR exacerbates investment inefficiency and creates destabilizing effects, we hypothesize that CG is a crucial mechanism for controlling and monitoring companies’ investment behavior during periods of higher geopolitical uncertainty. CG plays a significant role in minimizing asymmetry of information and agency conflicts by enhancing managerial oversight and improving the dissemination of information. These robust governance practices help prevent financial constraints and mitigate opportunistic managerial behavior (Yadav and Yadav, 2024b; Kanagaretnam et al., 2007). Although GPR tends to increase investment inefficiency by introducing uncertainty and financial constraints, firms with strong CG systems may be better equipped to manage the impact of such exogenous shocks, ultimately improving their investment outcomes for several reasons.

First, companies with effective CG practices provide transparent and reliable information to investors, enabling them to make informed decisions about potential investment returns. This enhanced disclosure reduces information asymmetry and alleviates financial constraints by diminishing adverse selection problems (Black et al., 2017). Thus, we expect that robust CG can lessen the positive effects of GPR on investment inefficiency by promoting better capital allocation and reducing the likelihood of underinvestment. Second, high-quality CG mitigates moral hazard by curbing management incentives to be involved in value-destructive investments, including building an empire or overinvestment in companies with excess FCF (Black et al., 2017). CG also restrains managerial opportunistic behavior, mitigating the adverse impact of uncertainties (Chow et al., 2018; Yang and Song, 2023). During periods of geopolitical uncertainty, managers may exploit reduced external oversight to pursue such inefficient behaviors. However, strong CG practices enhance the monitoring of managerial decision-making, thus reducing the scope for opportunistic behavior. By improving investor oversight, CG restricts managers' ability to engage in inefficient investments, lowering the risk of overinvestment. Third, robust governance enhances a firm's reputation among investors, which can help alleviate the negative impacts of current or future crises, including geopolitical shocks. Firms with strong governance signal accountability, transparency, and financial stability, reducing idiosyncratic risk and boosting investor confidence. This reputational advantage makes it more likely that investors will retain their stakes in high-CG firms during periods of heightened GPR, as these firms are perceived to be more adept at managing risks and maintaining market performance. Consequently, CG acts as a buffer against the adverse effects of GPR, maintaining firm’s investment efficiency.

Building on this literature, we posit that companies with strong CG practices are better equipped to lessen the positive impact of GPR on investment inefficiency. Strong CG enhances accountability, transparency, and risk management capabilities, which helps reduce the likelihood of both underinvestment and overinvestment in the face of geopolitical uncertainty. Based on these insights, we propose the following hypotheses:

H2.

CG in firms lessens the positive impact of GPR on investment inefficiency.

H2a.

CG in firms lessens the positive impact of GPR on overinvestment.

H2b.

CG in firms lessens the positive impact of GPR on underinvestment.

Our research focuses on a comprehensive sample of Indian listed companies from 2002 to 2023. This period is selected due to the availability of consistent and comprehensive data on Indian firms beginning from 2002. We obtain data from multiple datasets. Specifically, accounting data is obtained from COMPUSTAT Global and Bloomberg, while CG data is hand-collected from firms' CG reports retrieved through Centre for Monitoring Indian Economy's (CMIE) ProwessIQ database. Additionally, macroeconomic variables data are extracted from the world development indicators (World Bank). GPR index data is retrieved from Caldara and Iacoviello (2022) [3]. To confirm the relevance of our dataset, rigorous selection criteria were applied. Firms classified under the utility industries (SIC 4900–4999) and financial industries (SIC 6000–6999) are omitted due to their distinct regulatory frameworks and characteristics. Furthermore, observations with missing or incomplete data for key variables are excluded. After filtering, our final sample contains 43,182 firm-year observations from 3,943 non-financial companies. All variables are winsorized at the 1st and 99th percentiles to lessen the influences of outliers.

3.2.1 Dependent variable: investment inefficiency

Investment efficiency is conceptually understood as a firm’s ability to execute all projects with a positive net present value (NPV). While no universal direct measure for investment efficiency exists, we follow the most popular model developed by Biddle et al. (2009), with deviations from expected investment levels as a proxy for inefficiency. In this model, the level of investment is regressed on sales growth, aligning with the accelerator theory, which posits that firms in efficient markets adjust their investments in response to product demand or sales growth. Accordingly, sales growth from the preceding year is a key predictor of the optimum level of investment. Thus, the baseline model is:

(1)

where Invesi,t signifies the total investment of company “i” in year “t”, computed as the sum of expenditures in the capital, acquisitions, and research and development minus the property, plant, and equipment sales, all divided by lagged total assets. SalesGrowthi,t1 represents the prior year’s sales growth rate. The residual () represents the deviation from predictable investment level. A positive residual specifies that a company's investment is higher than expected based on its growth opportunities, signaling overinvestment, while a negative residual specifies that the company's actual investment is lower than expected, indicating underinvestment. To quantify investment inefficiency (INV_INEFF), we use the absolute value of the residuals | i,t |, where higher values reflect greater deviations from the expected investment levels, signifying greater inefficiency. Overinvestment (OI) is measured by positive residuals, while underinvestment (UI) is quantified as the absolute negative residuals value. In robustness tests, we also employ the Chen et al. (2011) model as an alternative proxy for investment efficiency.

3.2.2 Independent variables

3.2.2.1 Geopolitical risk

The primary independent variable of interest in this study is the GPR index, established by Caldara and Iacoviello (2022). The GPR index is derived using automated text searches that measure the frequency of terms related to bad GPR events in 10 major international newspapers [4]. Specifically, the GPR index encompasses eight categories of adverse events related to geopolitical risk: (1) nuclear tensions, (2) war tensions, (3) military buildups, (4) peace tensions, (5) terrorist acts, (6) the initiation of war, (7) escalation of war, and (8) terror acts. GPR is calculated by counting the total number of articles mentioned in these eight categories in each newspaper monthly and dividing this by the total articles published. Additionally, Caldara and Iacoviello (2022) construct two subindices: the geopolitical risk threats (GPRT) index, which captures threats or expectations of future events (categories 1–5), and geopolitical risk acts (GPRA), which reflects the actual occurrence or escalation of ongoing geopolitical events (categories 6–8). For this study, we convert the monthly GPR, GPRT, and GPRA indices into annual measures by averaging the data over 12 months and then taking the natural logarithm of the annual values to minimize skewness in the data, following previous research (Rumokoy et al., 2023; Fiorillo et al., 2023). Higher values of GPR, GPRT, and GPRA indicate elevated geopolitical risks.

The monthly GPR index for the sample period is shown in Figure 1. As demonstrated from the plot, the index effectively captures major geopolitical events, with the highest spikes corresponding to key incidents such as the onset of the Iraq War in 2003 and the Russia–Ukrainian War in 2022. Additionally, smaller yet notable peaks are observed around events like the Russian annexation of Crimea in 2014, the Paris attacks in 2015, the North Korean crisis during 2017–2018, and the assassination of Qasem Soleimani in 2020. Similarly, Figure 2 presents the monthly Indian GPR index, capturing significant geopolitical developments specific to India. Notable spikes align with events such as the India-Pakistan tensions in 2001–2002, Mumbai terror attacks in 2008, the Uri attack and the Surgical Strikes in 2016, the Pulwama attack and Balakot airstrike in 2019, the abrogation of Article 370 of the Indian Constitution to Jammu and Kashmir in the same year, the India-China border clashes in the Galwan Valley in 2020, the US withdrawal from Afghanistan in 2021, and India's neutral stance during the Russia-Ukraine War in 2022. These visual representations of the GPR index offer clear evidence of its ability to track and reflect geopolitical tensions and their impact over time, both globally and in the Indian context.

Figure 1
A line graph plots year-wise geopolitical risk index.The horizontal axis is labeled “Year” and ranges from 2002 month 1 through 2022 month 1 in increments of 5 units with each year representing only month 1. The vertical axis labeled “G P R” ranges from 0 to 400 in increments of 100 units. The graph consists of a line that shows two distinct peaks and heavy fluctuations throughout its course. It starts at (2002 month 1, 173.32), shows distinct peaks at (2003 month 5, 360), and (2022 month 1, 320.24), and ends at (2023 month 1, 134.84). The fluctuations range between the G P R value of 61.38 and 208.3. Note: All numerical data values are approximated.

Global geopolitical risk index. This figure depicts the monthly global GPR index (Caldara and Iacoviello, 2022) from 2002 to 2022. Source: Authors own work

Figure 1
A line graph plots year-wise geopolitical risk index.The horizontal axis is labeled “Year” and ranges from 2002 month 1 through 2022 month 1 in increments of 5 units with each year representing only month 1. The vertical axis labeled “G P R” ranges from 0 to 400 in increments of 100 units. The graph consists of a line that shows two distinct peaks and heavy fluctuations throughout its course. It starts at (2002 month 1, 173.32), shows distinct peaks at (2003 month 5, 360), and (2022 month 1, 320.24), and ends at (2023 month 1, 134.84). The fluctuations range between the G P R value of 61.38 and 208.3. Note: All numerical data values are approximated.

Global geopolitical risk index. This figure depicts the monthly global GPR index (Caldara and Iacoviello, 2022) from 2002 to 2022. Source: Authors own work

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Figure 2
A line graph plots year-wise geopolitical risk index in India.The horizontal axis is labeled “Year” and ranges from 2002 month 1 through 2022 month 1 in increments of 5 units with each year representing only month 1. The vertical axis labeled “G P R India” ranges from 0 to 1 in increments of 0.2 units. The graph consists of a line that shows three distinct peaks and heavy fluctuations throughout its course. It starts at (2002 month 1, 0.8), shows distinct peaks at (2003 month 1, 0.9), and (2009 month 1, 0.9), and ends at (2024 month 1, 0.5). The fluctuations range between the G P R value of 0.125 and 0.5. Note: All numerical data values are approximated.

Indian geopolitical risk index. This figure depicts the monthly Indian GPR index (Caldara and Iacoviello, 2022) from 2002 to 2022. Source: Authors own work

Figure 2
A line graph plots year-wise geopolitical risk index in India.The horizontal axis is labeled “Year” and ranges from 2002 month 1 through 2022 month 1 in increments of 5 units with each year representing only month 1. The vertical axis labeled “G P R India” ranges from 0 to 1 in increments of 0.2 units. The graph consists of a line that shows three distinct peaks and heavy fluctuations throughout its course. It starts at (2002 month 1, 0.8), shows distinct peaks at (2003 month 1, 0.9), and (2009 month 1, 0.9), and ends at (2024 month 1, 0.5). The fluctuations range between the G P R value of 0.125 and 0.5. Note: All numerical data values are approximated.

Indian geopolitical risk index. This figure depicts the monthly Indian GPR index (Caldara and Iacoviello, 2022) from 2002 to 2022. Source: Authors own work

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3.2.2.2 Corporate governance: construction of corporate governance index (CGI)

We develop a firm-level CGI [5] as a moderating variable to evaluate governance practices by considering recent Indian regulations and guidelines related to ownership structure, board structure, nomination and remuneration, disclosure practice, and audit quality. The governance index comprises 65 parameters for good governance (see  Appendix Table A2), drawn from global standards and India's legal framework, including the Indian Companies Act, 2013 and the Organisation for Economic Co-operation and Development (OECD) principles, instead of employing the country-level CG ratings. Following the methodology established by Black et al. (2017), we employed a dichotomous approach to construct a CGI, assigning a score of 1 to firms that comply with the requirements and 0 to those that do not. Thus, a company “i” can attain an extreme value of 65 in any given year “t” if it adheres to all governance parameters. The total scores are normalized and scaled between 0 and 100 to enable firm-level comparisons, where 100 represents full compliance, and 0 indicates no compliance. The governance index is calculated employing the following model:

(2)

where in equation (2) CG_INDICATORS are 65 corporate governance elements.

3.2.3 Control variables

We incorporate a comprehensive set of control variables that may impact inefficient investment based on earlier research (Biddle et al., 2009; Benlemlih and Bitar, 2018; Yadav and Yadav, 2024a). These variables comprise tangibility (TANG), firm size (SIZE), leverage (LEVE), return on assets (ROA), cash (CASH), financial slack (SLACK), operating cycle (Ln_OC), return on equity (ROE), cash flow from operations (CFO), Tobin’s Q (TOBINSQ), firm age (Ln_Age), and GDP growth rate (GDP_GRO). We include year and industry fixed effects in our regression models to account for potential confounding effects arising from time and industry variations. Measurement of variables employed in our analysis is provided in  Appendix Table A1.

To investigate the influences of GPR on investment inefficiency, overinvestment, and underinvestment, we estimate the following baseline regression models:

(3)
(4)
(5)

In these equations, the dependent variable INV_INEFFi,t denotes investment inefficiency, while OI and UI represent overinvestment and underinvestment for company “i” in period “t”, respectively. Specifically, INV_INEFF is quantified as the absolute value of the residuals obtained from equation (1), where overinvestment (OI) corresponds to positive residuals, and underinvestment (UI) refers to the absolute value of negative residuals. The primary independent variable under investigation is GPR. The vector Y includes control variables that impacting inefficient investment, as outlined in the variable’s description section. Additionally, year and industry fixed effects are incorporated, with the error term signified by i,t across all models.

To mitigate potential endogeneity concerns, particularly those stemming from reverse causality, and recognizing that investment decisions are typically made in advance, we incorporate a one-year lag for independent and control variables in our analysis (Akron et al., 2022). We estimate all equations using OLS and cluster the standard errors at both the year and firm levels to account for within-firm serial correlation and heteroskedasticity, consistent with the earlier literature (Yadav and Yadav, 2024b; Benlemlih and Bitar, 2018; Biddle et al., 2009).

Further, to analyze the effect of firm-level CG as a mitigating channel, we employ the following model:

(6)

In this equation, the term GPR × CGI captures the interaction effect between GPR and CGI. We expect the interaction term coefficient to be negative and significant, as it will support our hypothesis that strong CG weakens the positive association between GPR and inefficiency in investment. Similarly, a negative and significant interaction term for overinvestment (OI) and underinvestment (UI) would indicate that robust governance practices reduce the likelihood of excessive or insufficient investment during periods of geopolitical volatility.

Table 1 shows the descriptive statistics of the main variables used in our analysis. Our sample contains 43,182 firm-year observations, with 30,138 observations (69.79%) classified as underinvesting and the remaining 13,044 observations (30.20%) identified as overinvesting. This highlights that under-investment is more prevalent among Indian listed firms. The average value of investment inefficiency (INV_INEFF) is 0.081, ranging from 0.000 to 0.808. Firms that overinvest exhibit a higher mean investment inefficiency (0.134) than underinvesting firms (0.058). Regarding the geopolitical risk indicators, the mean (and standard deviation) for the GPR, GPRT, and GPRA variables are 4.561 (0.176), 4.601 (0.230), and 4.470 (0.287), respectively. These values suggest varying levels of geopolitical risk perceptions across the sample period. Furthermore, the mean value of the CGI is 69.481, with a standard deviation of 6.205, indicating variations in corporate governance practices across the sample firms. The descriptive statistics for control variables are similar to findings in prior studies (Lara et al., 2016).

Table 1

Descriptive statistics

VariablesObservationsMeanMedianSDMinMax
INV_INEFF43,1820.08110.06220.10220.00000.8087
OI13,0440.13420.07150.16890.00000.8087
UI30,1380.05810.06090.02940.00000.2112
GPR43,1824.56154.54050.17664.34765.0767
CGI7,00769.481969.23086.205953.846283.0769
GPRT43,1824.60174.57950.23074.31455.3118
GPRA43,1824.47094.48280.28783.89835.0923
TANG43,1810.37780.34040.25900.00371.3483
SIZE43,1707.89377.73581.98923.413213.1117
ROA43,1820.04840.03930.1003−0.30370.4261
LEVE43,1600.33900.30140.29080.00001.6061
CASH43,1820.09880.03990.14400.00040.7779
SLACK41,7370.63290.08072.29120.000721.4640
Ln_OC42,6255.16195.14500.82132.87128.4792
ROE43,1590.08790.09250.2953−1.48531.4159
CFO43,1820.06240.06440.1276−0.48420.4582
TOBINSQ43,1820.56080.870251.14520.175148.9796
Ln_Age43,1822.82943.21891.26160.00004.5951
GDP_GRO43,1776.70777.41021.77983.08679.0503

Note(s): The measurement of the variables is in  Appendix Table A1 

Source(s): Authors own work

Further, Table 2 demonstrates the Pearson correlation matrix for the main variables. As expected, the GPR index shows a positive and significant relationship with investment inefficiency, which supports the hypothesis that heightened GPR leads to increased inefficiencies in corporate investment. Conversely, the CGI demonstrates a negative and significant correlation with inefficient investment, implying that good CG stipulations help to lessen inefficiencies in investment. The correlations among the control variables are consistent with prior studies (Biddle et al., 2009; Cutillas Gomariz and Ballesta, 2014), and the low pairwise correlations among the independent variables suggest an absence of multicollinearity.

Table 2

Pairwise correlations

VariablesINV_INEFFGPRCGITANGSIZEROALEVECASHSLACKLn_OCROECFOLn_AgeGDP_GROTOBINSQ
INV_INEFF1.000              
GPR0.023***1.000             
CGI−0.073***−0.206***1.000            
TANG0.339***−0.020***−0.132***1.000           
SIZE−0.050***−0.020***0.173***0.131***1.000          
ROA0.119***0.043***0.108***0.030***0.075***1.000         
LEVE0.267***−0.019***−0.183***0.361***0.087***−0.276***1.000        
CASH0.081***0.014***0.095***−0.169***0.105***0.360***−0.244***1.000       
SLACK0.013**0.002−0.044***−0.295***−0.019***0.079***−0.132***0.400***1.000      
Ln_OC−0.036***−0.008−0.043***−0.171***0.011**−0.170***0.058***−0.160***−0.048***1.000     
ROE0.036***0.024***0.047***0.0060.049***0.409***−0.036***0.127***0.030***−0.095***1.000    
CFO0.021***0.0020.114***0.181***0.145***0.324***−0.187***0.155***−0.015***−0.222***0.158***1.000   
Ln_Age−0.120***0.012**0.101***−0.0070.141***0.025***−0.135***0.015***−0.031***−0.0030.009*0.092***1.000  
GDP_GRO0.037***0.352***0.0110.023***−0.041***0.079***0.030***0.016***0.006−0.026***0.051***−0.029***−0.034***1.000 
TOBINSQ−0.042***0.079***−0.236***−0.032***0.396***0.206***−0.119***0.201***0.011**−0.069***0.108***0.183***0.215***−0.0011.000

Note(s): (1) The measurement of the variables is in  Appendix Table A1. (2) *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

Table 3 presents the findings of estimating equations (3) to (5) using pooled OLS. The estimation of equation (3) shows that the coefficient for GPR is positive and significant at the 1% level, indicating that companies facing heightened uncertainty due to increased GPR significantly increases investment inefficiency (models 1 and 2). This result is consistent with H1, indicating that increased geopolitical uncertainty leads to suboptimal capital allocation. These dynamics are supported by the recent study of Nguyen et al. (2025), which finds that GPR increases investment inefficiency among US firms, highlighting the adverse effects of heightened uncertainty on capital allocation decisions.

Table 3

Effect of GPR on investment inefficiency, overinvestment, and underinvestment

Investment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6
GPR0.6145***0.1145***0.0422***0.0213***0.2299***0.0649***
(0.000)(0.025)(0.002)(0.004)(0.004)(0.011)
TANG 0.0517*** 0.0806*** −0.0181***
 (0.009) (0.012) (0.002)
SIZE −0.0060*** −0.0160*** −0.0024***
 (0.000) (0.002) (0.000)
ROA 0.0786*** 0.0897 −0.0276***
 (0.026) (0.056) (0.004)
LEVE 0.0319*** 0.0513*** 0.0131***
 (0.003) (0.010) (0.001)
CASH 0.0346*** 0.0752*** −0.0045*
 (0.008) (0.016) (0.002)
SLACK 0.0014*** 0.0072** 0.0014***
 (0.000) (0.002) (0.000)
Ln_OC 0.0002 −0.0053* 0.0009**
 (0.001) (0.003) (0.000)
ROE 0.0001 −0.0012 −0.0030***
 (0.002) (0.011) (0.001)
CFO −0.0002 −0.0146 0.0003
 (0.000) (0.010) (0.000)
Ln_Age −0.0054*** −0.0121*** −0.0012***
 (0.000) (0.002) (0.000)
TOBINSQ 0.0014 0.0088 −0.0014***
 (0.002) (0.006) (0.000)
GDP_GRO 0.0660*** 0.0001 0.0003***
 (0.016) (0.000) (0.000)
Intercept−3.0852***−1.0012**−0.0627***0.1365***−1.1294***−0.2604***
(0.002)(0.257)(0.010)(0.032)(0.021)(0.059)
Industry FEYESYESYESYESYESYES
Year FEYESYESYESYESYESYES
Observations43,18240,89513,02012,29730,02328,595
Adj. R20.02820.08600.04830.12160.02520.1198

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

The analysis further examines the differential impact of GPR on overinvestment and underinvestment. For overinvestment, the estimation results of equation (4) reveal that GPR significantly increases overinvestment (models 3 and 4), supporting H1a. It demonstrates that heightened GPR exacerbates resource misallocation and amplifies agency issues, allowing managers to engage in overinvestment. Prior studies support these dynamics, with studies showing uncertain future policies increase overinvestment (Liu, 2013; Ahuja and Novelli, 2017; Irawan and Okimoto, 2021). With respect to underinvestment, the estimation of equation (5) reveals a similarly positive and significant relationship between GPR and underinvestment (models 5 and 6). These results support H1b, suggesting that increased GPR uncertainty constrains firms from making value-generating investments, thereby heightening underinvestment. The results align with theories of information asymmetry and real options, which suggest that firms facing high uncertainty are likely to delay or avoid investments, leading to underinvestment (Dissanayake et al., 2018; Nguyen and Thuy, 2023). However, it is worth noting that Nguyen et al. (2025) report contrasting evidence in the context of US firms, showing that GPR reduces underinvestment. This divergence may be attributed to differences in institutional environments, market maturity, or risk management practices between developed and emerging markets, highlighting the context-specific nature of firm responses to geopolitical risk. Further, coefficients of the control variables are similar to the earlier literature on investment efficiency, as demonstrated in Table 3 (Benlemlih and Bitar, 2018; Biddle et al., 2009; Lara et al., 2016).

Recent research has explored how other macro-level uncertainties such as EPU, WUI, and OPU impact investment inefficiency (Hou et al., 2021; Akron et al., 2022; Hamza et al., 2024). Interestingly, these studies present findings that are contradictory to our results, indicating that macroeconomic uncertainties may reduce rather than exacerbate investment inefficiency. The divergence in findings between ours and these prior studies could be attributed to the distinct nature of GPR, which is often associated with unpredictable and acute geopolitical events, which usually result in sudden and severe disruptions to firms' operating environments. These events create uncertainty that is far more challenging for firms to anticipate or manage compared to more structured uncertainties like EPU or fluctuations in oil prices. Conversely, macroeconomic uncertainties like EPU, WUI, and oil price fluctuations may be more predictable and follow cyclical patterns that allow firms to mitigate risks through hedging and other financial instruments.

The GPR measure encompasses both the recognition or increase of ongoing adverse geopolitical events (GPRA) and the threats or expectations of future events (GPRT). To further validate our findings, we inspect the separate influences of GPRA and GPRT on inefficiency of investment. In this analysis, we substitute the main regressor in equations (3) to (5) with the GPRA and GPRT indices. The results are summarized in Table 4, with Panel A focusing on GPRT and Panel B on GPRA. Our findings demonstrate that the coefficient of GPRT is positively significant at the 1% level across all models: model 1 (inefficient investment), model 2 (overinvestment), and model 3 (underinvestment). Similarly, we observe a consistent positive coefficient for GPRA in models 4 to 6. These results reinforce our earlier findings in Table 3, confirming that uncertainty stemming from both GPRT and GPRA exacerbates all investment inefficiency variables.

Table 4

Effect of GPRT and GPRA on investment inefficiency, overinvestment, and underinvestment

Panel A (GPRT)Panel B (GPRA)
Investment inefficiencyOverinvestmentUnderinvestmentInvestment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6
GPRT1.1694***0.0347***0.0048***   
(0.272)(0.007)(0.001)   
GPRA   0.0463***0.0121***0.0129***
   (0.011)(0.003)(0.002)
TANG0.0498***0.0806***−0.0188***0.0498***0.0806***−0.0181***
(0.010)(0.012)(0.001)(0.010)(0.012)(0.002)
SIZE−0.0058***−0.0160***−0.0019***−0.0059***−0.0161***−0.0024***
(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)
ROA0.0785***0.0897−0.0256***0.0784***0.0895−0.0276***
(0.027)(0.056)(0.003)(0.027)(0.056)(0.004)
LEVE0.0336***0.0513***0.0128***0.0334***0.0511***0.0131***
(0.004)(0.010)(0.001)(0.004)(0.010)(0.001)
CASH0.0342***0.0752***−0.00310.0340***0.0753***−0.0045**
(0.009)(0.016)(0.002)(0.009)(0.016)(0.002)
SLACK0.0016***0.0072***0.0013***0.0017***0.0070***0.0014***
(0.000)(0.002)(0.000)(0.000)(0.002)(0.000)
Ln_OC−0.0001−0.0053*0.0008***−0.0001−0.0050*0.0009**
(0.001)(0.003)(0.000)(0.001)(0.003)(0.000)
ROE0.0001−0.0012−0.0027***0.0001−0.0011−0.0030***
(0.003)(0.011)(0.001)(0.003)(0.011)(0.001)
CFO−0.0003−0.01460.0003−0.0003−0.01450.0003
(0.000)(0.010)(0.000)(0.000)(0.010)(0.000)
Ln_Age−0.0058***−0.0121***−0.0008***−0.0057***−0.0120***−0.0012***
(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)
TOBINSQ0.00140.0088−0.0015***0.00130.0087−0.0015***
(0.002)(0.006)(0.000)(0.002)(0.006)(0.000)
GDP_GRO0.4404***−0.00000.0002***0.0454**0.00010.0005***
(0.104)(0.000)(0.000)(0.012)(0.000)(0.000)
Intercept−9.3451***0.06960.0508***−0.4975**0.1821***0.1005***
(2.203)(0.042)(0.005)(0.146)(0.027)(0.007)
Industry FEYESYESYESYESYESYES
Year FEYESYESYESYESYESYES
Observations40,89512,29728,59540,89512,29728,598
Adj. R20.08300.12160.11700.08310.12230.1192

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

We expand our analysis by examining whether CG moderates the association between GPR and investment inefficiency. Table 5 displays the results from estimating equation (6), where we incorporate interaction effects between GPR and CGI (GPR × CGI) to explore whether strong governance mechanisms can buffer the impact of geopolitical uncertainty. The coefficient for GPR (models 1–3) remains positive and significant, confirming its influence on all forms of investment inefficiency, like the findings in Table 3. In contrast, the coefficient for CGI exhibits a negative and significant impact across all models, aligning with previous research (Yadav and Yadav, 2024b; Kanagaretnam et al., 2007).

Table 5

Effect of GPR, CGI and its interaction on investment inefficiency, overinvestment, and underinvestment

Investment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3
GPR × CGI−0.0025***−0.0052**−0.0005**
(0.001)(0.003)(0.000)
GPR0.0155**0.02380.0127***
(0.007)(0.019)(0.005)
CGI−0.0008***−0.0012**−0.0002***
(0.000)(0.001)(0.000)
TANG0.0324**0.0595***−0.0210***
(0.015)(0.021)(0.003)
SIZE−0.0056***−0.0147***−0.0016***
(0.002)(0.004)(0.000)
ROA−0.0712−0.1953*−0.0384***
(0.070)(0.116)(0.008)
LEVE0.01310.01890.0172***
(0.015)(0.027)(0.003)
CASH0.0558***0.1772***0.0026
(0.017)(0.034)(0.005)
SLACK0.0002−0.00240.0018***
(0.001)(0.003)(0.000)
Ln_OC−0.0040−0.0104*0.0015
(0.003)(0.006)(0.001)
ROE0.0026−0.0421−0.0003
(0.003)(0.042)(0.001)
CFO−0.0498−0.1108*0.0030
(0.045)(0.065)(0.004)
Ln_Age−0.0139***−0.0306***−0.0017*
(0.005)(0.009)(0.001)
TOBINSQ0.00470.0129*−0.0009**
(0.004)(0.007)(0.000)
GDP_GRO0.0007**0.00090.0442***
(0.000)(0.001)(0.009)
Intercept0.2998***0.6382***0.0080
(0.088)(0.178)(0.021)
Industry FEYESYESYES
Year FEYESYESYES
Observations6,4642,1134,351
Adj. R20.05790.13330.1274

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

The interaction term (GPR × CGI) in model 1 shows a negative and significant coefficient (−0.0025), suggesting that firms with stronger CG can better mitigate the adverse effects of GPR on investment inefficiency. This result supports H2, indicating that effective CG can reduce the adverse effects of GPR on investment behavior by improving access to capital and fostering better oversight, thereby ensuring efficient capital allocation during geopolitical uncertainties. Specifically, firms with strong CG enjoy enhanced reputations, signaling accountability and stability, which helps maintain investor confidence during geopolitical shocks. Thus, effective CG serves as a safeguard mechanism against the negative influences of GPR by facilitating better access to capital, fostering improved oversight, and ensuring more efficient capital allocation even amid geopolitical uncertainty. Further, in model 2, the interaction term coefficient is also negative (−0.0052) at the 5% significance level, demonstrating that robust CG lessens the positive influence of GPR on overinvestment. This finding confirms H2a, showing that strong CG curtails managerial tendencies toward overinvestment. Lastly, model 3 presents similar results for underinvestment, where the interaction effect coefficient (−0.0005) is negative and significant. These findings confirm our hypothesis (H2b), suggesting that companies with high-quality CG are better positioned to enhance their reputation among investors and stakeholders, acting as an “insurance-like” protection against external shocks. This improved reputation helps alleviate financial constraints, as better governance increases investor confidence and facilitates access to capital during uncertain times.

To further validate our findings, we explored the influence of GPRT and GPRA on inefficient investment with CGI. Table 6 shows the results in Panel A (for GPRT) and Panel B (for GPRA), where we observe similar negative coefficients for the interaction terms (GPRT × CGI and GPRA × CGI) across both panels for investment inefficiency, overinvestment, and underinvestment. Overall, the empirical findings reinforce our hypotheses (H2, H2a, and H2b), demonstrating that CG effectively lessens the positive influence of GPR on all forms of investment inefficiency, highlighting the crucial role of CG in enhancing firm resilience against geopolitical risks.

Table 6

Effect of GPRT, GPRA, CGI and its interaction on investment inefficiency, overinvestment, and underinvestment

Panel A (GPRT)Panel B (GPRA)
Investment inefficiencyOverinvestmentUnderinvestmentInvestment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6
GPRT × CGI−0.0021**−0.0072***−0.0007**   
(0.001)(0.002)(0.000)   
GPRA × CGI   −0.0025***−0.0053**−0.0001***
   (0.001)(0.003)(0.000)
GPRT0.0136*0.4058***0.0219***   
(0.007)(0.123)(0.003)   
GPRA   0.0131***0.0336**0.1078***
   (0.004)(0.013)(0.022)
CGI−0.0007***−0.0014**−0.0002**−0.0009***−0.0171*−0.0003***
(0.000)(0.001)(0.000)(0.000)(0.009)(0.000)
TANG0.0327**0.0610***−0.0209***0.0330**0.0609***−0.0212***
(0.015)(0.021)(0.003)(0.015)(0.021)(0.003)
SIZE−0.0056***−0.0146***−0.0018***−0.0058***−0.0151***−0.0016***
(0.002)(0.004)(0.000)(0.002)(0.004)(0.000)
ROA−0.0697−0.1943*−0.0342***−0.0665−0.1903*−0.0399***
(0.070)(0.115)(0.008)(0.069)(0.115)(0.008)
LEVE0.01330.01820.0179***0.01440.02190.0167***
(0.015)(0.027)(0.003)(0.015)(0.027)(0.003)
CASH0.0569***0.1785***0.00250.0569***0.1821***0.0011
(0.017)(0.034)(0.005)(0.017)(0.034)(0.005)
SLACK0.0001−0.00240.0019***0.0002−0.00240.0018***
(0.001)(0.003)(0.000)(0.001)(0.003)(0.000)
Ln_OC−0.0040−0.0102*0.0011−0.0044−0.0109*0.0015
(0.003)(0.006)(0.001)(0.003)(0.006)(0.001)
ROE0.0026−0.0457−0.00070.00230.0093−0.0005
(0.003)(0.042)(0.001)(0.003)(0.014)(0.001)
CFO−0.0509−0.1134*0.0030−0.0505−0.1116*0.0047
(0.045)(0.065)(0.004)(0.045)(0.065)(0.004)
Ln_Age−0.0138***−0.0304***−0.0021**−0.0142***−0.0315***−0.0019**
(0.005)(0.009)(0.001)(0.005)(0.009)(0.001)
TOBINSQ0.00460.0127*−0.0011***0.00450.0124*−0.0008**
(0.004)(0.007)(0.000)(0.004)(0.007)(0.000)
GDP_GRO0.00030.00010.0005***0.0006*0.00050.0006***
(0.000)(0.001)(0.000)(0.000)(0.001)(0.000)
Intercept0.2122***0.4917***−0.01820.2233***0.4352***0.1202***
(0.070)(0.128)(0.014)(0.058)(0.128)(0.014)
Industry FEYESYESYESYESYESYES
Year FEYESYESYESYESYESYES
Observations6,4642,1134,3516,4642,1134,351
Adj. R20.05720.13270.14050.05700.13140.1333

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

Our primary research design in the baseline model implementing one-period lag addresses reverse causality issues significantly. To mitigate further potential endogeneity concerns between GPR variables and investment inefficiency, we employ several econometric analyses: (1) two-stage least squares estimation; (2) Oster (2019) test for omitted variables; (3) two-step system GMM; (4) analysis of the incremental effect of GPR; and (5) firm fixed-effects estimation. These methods aim to address issues of simultaneity, measurement error, and omitted variable bias. We discuss the first two analysis in the paper, with the rest discussed in detail in the Supplementary Appendix (S.A. 1, 2 and 3) for space conservation.

Endogeneity arises from the correlation between explanatory variables and the error term, leading to inconsistent and biased parameter estimates. To alleviate this, we use a 2SLS instrumental variable (IV) estimation. A valid instrument (IV) must satisfy two key conditions: (1) relevance, meaning it must be correlated with the endogenous regressor; and (2) exclusion, meaning it should not directly affect the dependent variable except through its effect on the endogenous variable. By employing instruments into the model helps remove the correlation between the error term and the endogenous variable. Thus, to address potential endogeneity concerns, this study employs the growth rate of terrorist attacks (GTA) [6] as an instrumental variable for GPR. This approach aligns with prior research, including Nguyen and Thuy (2023) and Phan et al. (2022), who similarly utilize GTA as a valid instrument. GTA reflects terrorism's activities in a country, encompassing casualties, attacks, and economic effects factors that contribute directly to geopolitical instability. As terrorism directly escalates security concerns, disrupts political and economic environments, and often triggers international tensions, it serves as a strong predictor of elevated geopolitical risk (Nguyen and Thuy, 2023; Phan et al., 2022). Thus, GTA serves as a relevant proxy for geopolitical risk by providing significant exogenous variation in GPR, satisfying the relevance criterion. Moreover, since GTA influences investment inefficiency only indirectly through GPR and there is no theoretical or empirical evidence of a direct effect it also meets the exclusion restriction. Taken together, these conditions confirm that GTA satisfies both the relevance and exclusion criteria necessary for a valid instrumental variable. In the first stage, GPR is regressed on the GTA alongside control variables, with the equation specified as follows:

(7)

To assess the validity of the instrumental variable, we examine the results of the first-stage regressions reported in Table 7 for model 1, model 3, and model 5. As expected, these results demonstrate that GTA is positively and significantly associated with GPR, confirming the relevance of the instrument. In support of this, we also find a positive and significant correlation between GTA and GPR (correlation coefficient = 0.0406) (untabulated). These findings are consistent with Abdullah et al. (2024), Nguyen and Thuy (2023), and Phan et al. (2022), who also document that heightened terrorist activity contributes to increased geopolitical uncertainty. To ensure our instruments' validity, we use several diagnostic tests. The Kleibergen-Paap rk LM statistics are significant across all models, which rules out any under-identification concerns. The value of Cragg-Donald Wald F-statistics is more than the Stock-Yogo critical values, alleviating apprehensions about weak instrument identification. In the second stage, we replace GPR with its predicted value from the first stage and re-estimate the investment inefficiency models using the following specifications:

Table 7

Estimates from 2SLS

First stageSecond stageFirst stageSecond stageFirst stageSecond stage
DV = GPRDV = investment inefficiencyDV = GPRDV = overinvestmentDV = GPRDV = underinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6
GTA0.0146*** 0.0001*** 0.0127*** 
(0.000) (0.000) (0.000) 
Pred_GPR 0.0335*** 0.1050*** 0.1123***
 (0.007) (0.022) (0.039)
TANG−0.0098***0.0520***−0.0223***0.0812***−0.0052*0.0185***
(0.002)(0.003)(0.004)(0.008)(0.003)(0.001)
SIZE−0.0045***−0.0057***−0.0078***−0.0152***−0.0031***−0.0016***
(0.000)(0.000)(0.000)(0.001)(0.000)(0.000)
ROA−0.0321***0.0778***−0.0080*0.0767***−0.0470***0.0224***
(0.006)(0.009)(0.014)(0.029)(0.007)(0.003)
LEVE−0.00290.0323***−0.00100.0426***0.00250.0125***
(0.002)(0.003)(0.004)(0.008)(0.002)(0.001)
CASH−0.00180.0370***−0.00580.0977***0.00290.0038*
(0.004)(0.006)(0.007)(0.015)(0.005)(0.002)
SLACK−0.00010.0017***−0.0014*0.0093***0.00010.0015***
(0.000)(0.000)(0.000)(0.002)(0.000)(0.000)
Ln_OC0.0009−0.0001−0.0022−0.0058**0.0028***0.0004
(0.000)(0.001)(0.001)(0.002)(0.000)(0.000)
ROE0.0034*0.00070.0038−0.00050.0030−0.0034***
(0.002)(0.002)(0.005)(0.011)(0.002)(0.001)
CFO0.0004−0.00020.0185**−0.0086−0.00010.0003
(0.000)(0.000)(0.007)(0.012)(0.000)(0.000)
Ln_Age−0.0001−0.0058***0.0000−0.0140***−0.0002−0.0010***
(0.000)(0.000)(0.000)(0.001)(0.000)(0.000)
TOBINSQ0.00030.00140.00060.0092***0.0000***0.0015***
(0.000)(0.001)(0.000)(0.002)(0.000)(0.000)
GDP_GRO0.0154***−0.00010.0147***−0.0018**0.0156***−0.0016***
(0.000)(0.000)(0.000)(0.001)(0.000)(0.001)
Intercept4.4732***−0.0576*4.5316***−0.2405**4.4473***−0.4250**
(0.004)(0.031)(0.000)(0.102)(0.005)(0.172)
Industry FEYESYESYESYESYESYES
Year FEYESYESYESYESYESYES
Observations38,32438,32411,63311,64926,75326,753
Adj. R2 0.0846 0.1152 0.0967
F413.0941.1087291.5840.5493156.15146.6132
p-value0.0000.0000.0000.0000.0000.000
Kleibergen-Paap rk LM statistic 254.4466 158.2647 105.8990
p-value 0.0000 0.0000 0.0000
Cragg-Donald Wald F statistic 413.0939 291.5768 156.1502
p-value 0.0000 0.0000 0.0000

Note(s): This table estimates 2SLS by employing growth rate of terrorist attacks (GTA) as an instrument variable for geopolitical risk. In the first stage, GPR is regressed on GTA alongside all relevant control variables to account for potential endogeneity. To assess the validity and relevance of the instrument, we conduct standard diagnostic tests. The Kleibergen-Paap rk LM statistic yields a p-value of 0.000, confirming the relevance of the instrument, while the Cragg-Donald Wald F statistic is statistically significant, mitigating concerns regarding weak identification. In the second stage, the predicted values of GPR (Pred_GPR) obtained from the first stage are used to estimate the baseline equations. All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work
(8)

The findings of the IV estimation are detailed in Table 7. Across all models (model 2, model 4, model 6), confirm the earlier results in Table 3. Specifically, the coefficient for the predicted GPR values (Pred_GPR) remains positive and significant across all investment inefficiency measures.

Despite controlling for an extensive range of firm level and macroeconomic factors, the possibility of unaccounted-for confounders influencing the GPR–investment inefficiency relationship cannot be entirely ruled out. To alleviate this concern, we use the econometric framework given by Oster (2019) to evaluate the stability of our results. The Oster δ statistic measures the relative size of omitted variable bias required to nullify the observed effects (Oster, 2019). By analyzing variations in coefficients and R-squared across model specifications, with and without observable controls, this approach offers insights into the influence of unobserved variables. Oster (2019) suggests that δ values greater than 1 indicate robust results, implying that unobserved confounders would need to have a disproportionately large impact to fully explain away the estimated effects. As shown in Table 8, δ values significantly exceed this conventional threshold of 1. This provides strong evidence that the estimated positive relationship between GPR and investment inefficiency encompassing overinvestment and underinvestment is unlikely to be determined by omitted variable bias.

Table 8

Oster (2019) test for omitted variable bias

Dependent variablesControlled effect (βˆˆˆ)Oster bounds (βˆˆˆ, β*)Delta (δ)
Investment inefficiency0.1145***[0.1145, 0.0434]1.047 > 1
Overinvestment0.0213***[0.0213, 0.0925]1.052 > 1
Underinvestment0.0649***[0.0649, 0.0035]1.068 > 1
Baseline controlsYESYESYES
ContinentYESYESYES
Excluded zero YES 

Note(s): This table provides the Oster (2019) bounds for the key variable in the baseline analysis (Table 3). Here, δ indicates the extent of selection on unobserved variables relative to observed ones, while β* denotes the bias-adjusted coefficient, assuming δ = 1

Source(s): Authors own work

To provide further robustness to our results, we employ multiple alternative approaches. These include the entropy balancing, alternative measures of investment inefficiency and geopolitical risk and heterogeneity investigation. For space conservation, we provide the discussions on heterogeneity analysis in the  Supplementary Appendix (S. A. 4).

To tackle potential model mis-specification issues and endogeneity related to sample selection bias, we employ the EBAP, which has emerged as a more robust alternative to propensity score matching (PSM). While PSM has been widely used, recent critiques suggest that it may worsen imbalances and introduce bias (King and Nielsen, 2019). In contrast, EBAP adjusts the distribution of covariates by applying weights to the control group, thereby ensuring balanced covariates between treated and control firms (Hainmueller, 2012). In our analysis, we replicate the baseline model using this method to mitigate these concerns. Firm-year observations with GPR values exceeding the median are categorized into the treatment group, while those with GPR values below the median are assigned to the control group. Table 9 (Panels A and B) shows the covariate means and variances for treated and control firms before and after balancing. Initially, there were notable differences between the two groups. However, after implementing EBAP, no statistically significant differences remain between the covariates, confirming successful balancing. We then re-estimated the baseline model using the weighted sample. The findings in Table 9 (Panel C) reveal that the GPR remains a significant driver of investment inefficiency, overinvestment, and underinvestment, further corroborating our primary findings.

Table 9

Entropy balancing estimations

Panel A: Proof of convergence
Without weighting (before-balanced)
TreatedControl
VariablesMeanVarianceSkewnessMeanVarianceSkewness
TANG0.3750.0690.9240.3810.0690.845
SIZE7.6624.0320.4037.8944.0060.295
ROA0.0490.0110.2380.0470.0100.362
LEVE0.3470.0891.3790.3450.0861.315
CASH0.0960.0212.5920.0990.0212.560
SLACK0.6505.5536.8720.6705.7456.698
Ln_OC5.1700.7100.5835.1650.7010.571
ROE0.0920.094−0.8310.0820.086−0.969
CFO0.0610.06414.3400.0523.756−18.830
Ln_Age2.7731.621−1.2242.7661.692−1.214
TOBINSQ0.5601.4423.8330.4861.0344.473
GDP_GRO7.5440.345−0.6045.02217.930−1.652
After weighting variable
TreatedControl
VariablesMeanVarianceSkewnessMeanVarianceSkewness
TANG0.3750.0690.9240.3750.0630.805
SIZE7.6624.0320.4037.6623.7390.304
ROA0.0490.0110.2380.0490.0080.331
LEVE0.3470.0891.3790.3470.0760.944
CASH0.0960.0212.5920.0960.0192.624
SLACK0.6505.5536.8720.6504.9507.015
Ln_OC5.1700.7100.5835.1700.7020.504
ROE0.0920.094−0.8310.0920.053−0.350
CFO0.0610.06414.3400.0615.13979.400
Ln_Age2.7731.621−1.2242.7731.539−1.300
TOBINSQ0.5601.4423.8330.5601.5544.355
GDP_GRO7.5440.345−0.6047.54312.750−3.477
Panel B: Estimations with entropy balanced sample
Investment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6Model 7Model 8Model 9
GPR0.0083***  0.0161***  0.0037**  
(0.002)  (0.004)  (0.002)  
GPRT 0.0136***  0.0262***  0.0065*** 
 (0.002)  (0.007)  (0.002) 
GPRA  0.0047***  0.0092***  0.0009
  (0.001)  (0.003)  (0.002)
TANG0.0494***0.0494***0.0494***0.0837***0.0837***0.0837***−0.0187***−0.0187***−0.0187***
(0.010)(0.010)(0.010)(0.013)(0.013)(0.013)(0.003)(0.003)(0.003)
SIZE−0.0057***−0.0057***−0.0057***−0.0157***−0.0157***−0.0157***−0.0021***−0.0021***−0.0021***
(0.001)(0.001)(0.001)(0.002)(0.002)(0.002)(0.000)(0.000)(0.000)
ROA0.0774***0.0774***0.0774***0.1007*0.1007*0.1007*−0.0267***−0.0267***−0.0267***
(0.027)(0.027)(0.027)(0.058)(0.058)(0.058)(0.004)(0.004)(0.004)
LEVE0.0327***0.0327***0.0327***0.0468***0.0468***0.0468***0.0129***0.0129***0.0129***
(0.004)(0.004)(0.004)(0.010)(0.010)(0.010)(0.001)(0.001)(0.001)
CASH0.0339***0.0339***0.0339***0.0752***0.0752***0.0752***−0.0029−0.0029−0.0029
(0.008)(0.008)(0.008)(0.016)(0.016)(0.016)(0.002)(0.002)(0.002)
SLACK0.0016***0.0016***0.0016***0.0071***0.0071***0.0071***0.0014***0.0014***0.0014***
(0.000)(0.000)(0.000)(0.002)(0.002)(0.002)(0.000)(0.000)(0.000)
Ln_OC−0.0005−0.0005−0.0005−0.0071**−0.0071**−0.0071**0.0007*0.0007*0.0007*
(0.001)(0.001)(0.001)(0.003)(0.003)(0.003)(0.000)(0.000)(0.000)
ROE0.00070.00070.00070.00130.00130.0013−0.0026***−0.0026***−0.0026***
(0.003)(0.003)(0.003)(0.011)(0.011)(0.011)(0.001)(0.001)(0.001)
CFO−0.0003−0.0003−0.0003−0.0294**−0.0294**−0.0294**0.00030.00030.0003
(0.000)(0.000)(0.000)(0.011)(0.011)(0.011)(0.000)(0.000)(0.000)
Ln_Age−0.0057***−0.0057***−0.0057***−0.0121***−0.0121***−0.0121***−0.0009***−0.0009***−0.0009***
(0.001)(0.001)(0.001)(0.002)(0.002)(0.002)(0.000)(0.000)(0.000)
TOBINSQ0.00120.00120.00120.00810.00810.0081−0.0017***−0.0017***−0.0017***
(0.002)(0.002)(0.002)(0.006)(0.006)(0.006)(0.000)(0.000)(0.000)
GDP_GRO0.0004***0.0003***0.0004***0.0000−0.00000.00010.0007***0.0007***0.0007***
(0.000)(0.000)(0.000)(0.000)(0.000)(0.000)(0.000)(0.000)(0.000)
Intercept0.0606***0.0345**0.0784***0.1660***0.1154**0.2004***0.1231***0.1562***0.1006***
(0.012)(0.015)(0.010)(0.031)(0.041)(0.027)(0.005)(0.006)(0.004)
Industry FEYESYESYESYESYESYESYESYESYES
Year FEYESYESYESYESYESYESYESYESYES
Observations39,59939,59939,59911,91911,91911,91927,68027,68027,680
Adj. R20.08330.08330.08330.12330.12330.12330.12370.12370.1237

Note(s): This table presents the effects of GPR, GPRT, and GPRA on investment inefficiency, overinvestment, and underinvestment using the entropy balancing method. Firm-year observations with GPR values exceeding the median are categorized into the treatment group, while those with GPR values below the median are assigned to the control group. Panel A demonstrates the proof of convergence after entropy balancing. Panel B reports the regression results post-entropy balancing. All models employ pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

To further assess the robustness of our results, we utilize an alternative proxy for investment inefficiency based on the methodology of Chen et al. (2011). This method accounts for the association between sales growth and investment, incorporating the effects of periods of increasing and decreasing sales. A dummy variable, NEGA, is introduced to capture periods of negative sales growth (NEGA = 1 if sales growth is negative; otherwise, 0). We also include the interaction between NEGA and sales growth in our model to compute this measure of investment inefficiency, as shown in the following equation:

(10)

The estimated findings using this alternative measure are shown in Table 10, demonstrating consistent results. Untabulated findings also show that the effect remains similar for the alternative GPR proxies (GPRT and GPRA). This confirms that GPR increases investment inefficiencies, irrespective of the measure employed.

Table 10

Effect of GPR on investment inefficiency, overinvestment, and underinvestment using Chen et al. (2011) method

Investment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6
GPR0.4652***0.0925**0.0366***0.0176***0.0868***0.0112***
(0.000)(0.026)(0.002)(0.005)(0.003)(0.004)
TANG 0.0491*** 0.0778*** −0.0207***
 (0.010) (0.012) (0.002)
SIZE −0.0054*** −0.0157*** −0.0015***
 (0.001) (0.002) (0.000)
ROA 0.0857*** 0.0935 −0.0180***
 (0.027) (0.055) (0.004)
LEVE 0.0321*** 0.0503*** 0.0103***
 (0.004) (0.009) (0.001)
CASH 0.0340*** 0.0746*** −0.0138***
 (0.009) (0.017) (0.002)
SLACK 0.0014*** 0.0067*** 0.0012***
 (0.000) (0.002) (0.000)
Ln_OC −0.0007 −0.0058* −0.0003
 (0.001) (0.003) (0.000)
ROE 0.0012 −0.0016 −0.0031***
 (0.002) (0.010) (0.001)
CFO −0.0007* −0.0137** 0.0000
 (0.000) (0.006) (0.000)
Ln_Age −0.0057*** −0.0123*** −0.0008***
 (0.001) (0.002) (0.000)
TOBINSQ 0.0016 0.0083 −0.0010***
 (0.002) (0.006) (0.000)
GDP_GRO 0.0525** 0.0006* −0.0075***
 (0.016) (0.000) (0.000)
Intercept−2.3139***−0.7848**−0.0341***0.1529***−0.3899***0.2441***
(0.001)(0.259)(0.011)(0.034)(0.014)(0.004)
Industry FEYESYESYESYESYESYES
Year FEYESYESYESYESYESYES
Observations43,18240,89512,86012,13830,18328,754
Adj. R20.02800.08140.04980.12190.02220.0866

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

We further use alternative measures of GPR to ensure that our findings are not sensitive to the choice of GPR proxy. First, we employ a country-specific GPR index for India (GPR_IND). Second, while the log of average monthly GPR serves as our primary proxy, we also use the log of GPR observed in December of every year (GPR_DECEMBER) as a different measure, following the approach of Le and Tran (2021). Third, to capture the longer-term effects of GPR, we incorporate the log change in GPR over a two-year period (ΔTWO_YEAR_LN_GPR). Lastly, we consider the yearly changes in the GPR index (ΔLN_GPR), as suggested by Abdullah et al. (2024), to account for annual fluctuations in geopolitical risk. The results, presented in Table 11, indicate that, across all alternative measures, the coefficients for GPR_IND, GPR_DECEMBER, ΔTWO_YEAR_LN_GPR, and ΔLN_GPR remain positive and statistically significant. This consistent finding suggests that geopolitical risk continues to contribute to investment inefficiency, overinvestment, and underinvestment, regardless of the specific proxy used.

Table 11

Effect of GPR_IND, GPR_DECEMBER, ΔTWO_YEAR_LN_GPR, and ΔLN_GPR on investment inefficiency, overinvestment, and underinvestment

GPR = GPR_IndiaGPR_DECEMBERΔTWO_YEAR_LN_GPRΔLN_GPR
Investment inefficiencyOverinvestmentUnderinvestmentInvestment inefficiencyOverinvestmentUnderinvestmentInvestment inefficiencyOverinvestmentUnderinvestmentInvestment inefficiencyOverinvestmentUnderinvestment
VariablesModel 1Model 2Model 3Model 4Model 5Model 6Model 7Model 8Model 9Model 10Model 11Model 12
GPR0.0226***0.0396***0.0498***0.0119***0.0652***0.0036***0.0839***0.4252***0.0090***0.1156***0.2590***0.0146***
(0.002)(0.007)(0.001)(0.003)(0.013)(0.001)(0.012)(0.031)(0.002)(0.025)(0.050)(0.002)
TANG0.0516***0.0819***−0.0185***0.0531***0.0805***−0.0185***0.0050**0.0749***−0.0186***0.0022*0.0805***−0.0185***
(0.004)(0.009)(0.002)(0.004)(0.012)(0.003)(0.002)(0.012)(0.002)(0.001)(0.012)(0.002)
SIZE−0.0065***−0.0176***−0.0021***−0.0068***−0.0160***−0.0021***−0.0046***−0.0148***−0.0018***−0.0050***−0.0160***−0.0021***
(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)
ROA0.0890***0.1088**−0.0255***0.0946***0.0898−0.0255***0.0867***0.0744−0.0299***0.0974***0.0898−0.0255***
(0.016)(0.044)(0.004)(0.016)(0.056)(0.004)(0.030)(0.062)(0.004)(0.030)(0.056)(0.004)
LEVE0.0357***0.0559***0.0130***0.0360***0.0513***0.0130***0.0436***0.0510***0.0123***0.0471***0.0513***0.0130***
(0.003)(0.008)(0.002)(0.003)(0.010)(0.001)(0.007)(0.010)(0.001)(0.007)(0.010)(0.001)
CASH0.0354***0.0788***−0.0036**0.0359***0.0751***−0.00300.0329***0.0898***−0.00230.0294***0.0751***−0.0030
(0.007)(0.018)(0.001)(0.007)(0.016)(0.002)(0.010)(0.020)(0.002)(0.009)(0.016)(0.002)
SLACK0.0016***0.0069***0.0013***0.0016***0.0072***0.0013***0.00030.0055**0.0013***0.00040.0072***0.0013***
(0.000)(0.002)(0.000)(0.000)(0.002)(0.000)(0.000)(0.002)(0.000)(0.000)(0.002)(0.000)
Ln_OC0.0001−0.00490.0008**0.0001−0.0052*0.0008*−0.0032**−0.0061*0.0009**−0.0033**−0.0052*0.0008**
(0.001)(0.003)(0.000)(0.001)(0.003)(0.000)(0.001)(0.003)(0.000)(0.001)(0.003)(0.000)
ROE0.00050.0017−0.0029***0.0000−0.0013−0.0029***−0.0019−0.0067−0.0024***−0.0017−0.0013−0.0029***
(0.002)(0.010)(0.001)(0.002)(0.011)(0.001)(0.002)(0.012)(0.001)(0.002)(0.011)(0.001)
CFO−0.0004−0.01480.0003*−0.0004−0.01450.0003−0.0173**−0.01590.0004*−0.0075*−0.01450.0003
(0.000)(0.012)(0.000)(0.000)(0.010)(0.000)(0.007)(0.012)(0.000)(0.004)(0.010)(0.000)
Ln_Age−0.0061***−0.0126***−0.0010***−0.0063***−0.0121***−0.0010***−0.0052***−0.0119***−0.0008***−0.0055***−0.0121***−0.0010***
(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)(0.001)(0.002)(0.000)
GDP_GRO0.0009***0.0013***0.0139***0.0005***−0.0020***0.0020***−0.0143***0.0046***0.0069***−0.0123***−0.0040***0.0075***
(0.000)(0.000)(0.000)(0.000)(0.000)(0.000)(0.001)(0.001)(0.000)(0.001)(0.001)(0.000)
TOBINSQ0.00100.0080−0.0017***0.00080.0088−0.0017***0.00090.0083−0.0016***0.00080.0088−0.0017***
(0.002)(0.006)(0.000)(0.002)(0.006)(0.000)(0.002)(0.005)(0.000)(0.002)(0.006)(0.000)
Intercept0.1339***0.2979***0.0312***0.0462***−0.05450.1961***0.2404***0.1497***0.0174***0.2432***0.2468***0.0131***
(0.009)(0.029)(0.004)(0.015)(0.063)(0.004)(0.008)(0.026)(0.002)(0.017)(0.023)(0.004)
Industry FEYESYESYESYESYESYESYESYESYESYESYESYES
Year FEYESYESYESYESYESYESYESYESYESYESYESYES
Observations40,89512,29728,59540,88912,29428,59536,47010,88225,61540,88612,29428,592
Adj. R20.07400.11150.12220.07170.12160.12220.06670.11250.11990.07210.12160.1222

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

To explore the mechanisms through which GPR uncertainty affects the economy, this study conducts cross-sectional investigation by examining the roles of cash holdings (CH), irreversible investment, financial constraints (FC), product market competition (PMC), and level of industry exposure on the association between GPR and investment inefficiency. The results of this analysis are displayed in Table 12.

Table 12

Cross-sectional analysis

Investment inefficiency
VariablesModel 1Model 2Model 3Model 4Model 5Model 6Model 7
GPR0.0385***0.0245***0.0242**0.0233***0.0270***0.0238***0.0982***
(0.006)(0.004)(0.011)(0.004)(0.004)(0.004)(0.025)
HIGH_CH−0.1085***      
(0.032)      
HIGH_CH × GPR−0.0257***      
(0.007)      
HIGH_AT 0.0134***     
 (0.001)     
HIGH_AT × GPR 0.0351***     
 (0.007)     
HIGH_SAINDEX  0.0198***    
  (0.005)    
HIGH_SAINDEX × GPR  −0.0045***    
  (0.001)    
HIGH_FCPINDEX   0.0060***   
   (0.002)   
HIGH_FCPINDEX × GPR   −0.0008**   
   (0.000)   
HIGH_Size    0.0587***  
    (0.005)  
HIGH_Size × GPR    −0.0105***  
    (0.001)  
HIGH_HHI     −0.0011 
     (0.002) 
HIGH_HHI × GPR     0.0010** 
     (0.000) 
High_Exposure_Industry      −0.1203***
      (0.031)
High_Exposure_Industry × GPR      0.0268***
      (0.007)
Constant0.0402*0.0034−0.0128−0.0107−0.0171−0.0114−0.9137***
(0.022)(0.021)(0.052)(0.020)(0.020)(0.020)(0.252)
Industry FEYESYESYESYESYESYESYES
Year FEYESYESYESYESYESYESYES
Control VariablesYESYESYESYESYESYESYES
N40,88940,88940,88940,88940,88940,88940,889
Adj. R20.07270.06310.07460.07310.08340.07280.0778

Note(s): All models employing pooled panel OLS estimation. Robust standard errors in brackets are clustered by firm and year to address serial correlation and heteroskedasticity. The measurement of the variables is in  Appendix Table A1. *, **, and *** indicate significance levels of 10%, 5%, and 1%, respectively

Source(s): Authors own work

Our analysis begins by examining the economic channels that underline the relationship between GPR and investment inefficiency. Literature suggests that GPR heightens financial constraints and reduces firms' access to external capital (Haque et al., 2023; Carney et al., 2024), exacerbating investment inefficiency. Previous research highlights that the level of cash holdings is especially important for constrained companies as it enhances investment flexibility and improves the value of investments (Denis and Sibilkov, 2010). Companies increase cash reserves as a precaution against when facing GPR (Lee and Wang, 2021). Thus, holding cash helps companies navigate limited access to external credit and seize investment opportunities by mitigating cash-flow instability in the time of uncertain periods (Bates et al., 2009). To test this hypothesis, we define HIGH_CH as a binary variable that equals 1 if a company's cash to total assets ratio is above the sample median and 0 otherwise. We estimate the following model:

(11)

here, Y represents the set of control variables from equation (3), excluding cash. The interaction term coefficients (GPR × HIGH_CF) measure how GPR impacts investment inefficiency differently for companies with higher versus lower levels of cash holdings. If companies with high cash reserves are better at mitigating the positive impact of GPR compared to those with low cash holdings, the interaction term coefficient (β3) is expected to be negative and significant. As revealed in model (1) of Table 12, the interaction term's coefficient is negative and significant, signifying that the positive relationship between GPR and investment inefficiency is weaker for companies with higher levels of cash holdings. These findings suggest that precautionary cash reserves help companies reduce the adverse influence of GPR uncertainty on firm capital investment decisions, aligning with prior research (Wang et al., 2014). Companies benefit from using cash reserves to counteract the risks and uncertainties associated with geopolitical events. Collectively, our results emphasize the critical role of cash reserve in moderating the influence of GPR on investment inefficiency.

Next, we explore the moderating impact of irreversible investment on the association between GPR and inefficient investment. This association (GPR and inefficient investment) can be explained through the real options channel, which suggests investment irreversibility amplifies the negative effects of uncertainty. This argument builds on prior research suggesting that when investment is irreversible, external shocks like GPR heighten firms' incentives to delay investment decisions. This “wait-and-see” approach helps firms to minimize costly errors by allowing firms to postpone investments until favorable conditions (Bernanke, 1983; Dixit and Pindyck, 1994). The above argument shows that the positive influence of GPR on investment inefficiency should be stronger for companies with a higher level of irreversibility in investments. Such firms, which are heavily reliant on fixed assets, face greater challenges in adjusting their investments, making them more susceptible to inefficiencies during periods of heightened geopolitical risk. To measure investment irreversibility, we use asset tangibility (AT) as a proxy, following past studies (Cooper, 2006). Specifically, we define a binary variable, HIGH_AT, which equals 1 if a company’s ratio of tangible assets to total assets exceeds the sample median and zero otherwise. The following model is employed:

(12)

here, Y represents the set of control variables from equation (3), excluding tangibility. Our primary interest lies in the interaction term coefficient (β3), which captures the differential impact of GPR on investment inefficiency between companies with higher and lower level of investment irreversibility. We anticipate that (β3) will be positive and significant. The findings are presented in model (2) of Table 12. The interaction terms coefficient is positive and significant, indicating that the positive relationship between GPR and investment inefficiency is stronger for companies with higher proportions of irreversible investments, aligning with findings in previous investigations (Gulen and Ion, 2016; Wang et al., 2024). Overall, our results highlight the critical role of irreversible investment in shaping the influence of GPR on investment inefficiency. Companies with higher irreversible investments are less able to adapt to uncertainty, leading to greater inefficiencies. This analysis also reinforces the importance of the real options channel as a mechanism through which geopolitical risk exacerbates investment inefficiency.

We further examine how financial constraints affect the association between GPR and investment inefficiency, using three distinct measures of financial constraints [7]: the size age (SA) [8] index (SAINDEX), (FCP) [9] index (FCPINDEX), and firm size. Firms with higher SA and FCP index values are considered more financially constrained due to greater difficulties in accessing outside financing (Hadlock and Pierce, 2010; Schauer et al., 2019). Furthermore, smaller firms tend to be more financially constrained due to higher levels of agency concern and asymmetry of information (Fazzari et al., 1988). To assess the role of financial constraints, we create a binary variable that equals 1 if a firm’s SA and FCP index is above the median or if the firm’s size is below the median. We then modify our baseline model by including these financial constraint variables (HIGH_SAINDEX, HIGH_FCPINDEX, and HIGH_Size) and their interaction terms with GPR (HIGH_SAINDEX × GPR, HIGH_ FCPINDEX × GPR, and HIGH_Size × GPR). The key focus is on these interaction terms, and the results are presented in Table 12 (models 3–5).

Our findings reveal that the coefficients for all interaction terms are negative and significant. This indicates that the influence of GPR on inefficient investment is less pronounced for financially constrained companies compared to those that are financially unconstrained. Although this result may appear counterintuitive, it can be explained by the cautious behavior typically exhibited by financially constrained firms during periods of heightened uncertainty. Firms facing financial constraints tend to be more conservative in their investment decisions because their limited access to external financing encourages them to avoid risky investments during times of uncertainty (Hovakimian, 2011). As a result, they may exhibit reduced levels of inefficiency in investment. In contrast, companies with fewer financial constraints may have greater access to resources and flexibility and, therefore, engage in riskier investment strategies during periods of uncertainty, exacerbating inefficiencies (Scharfstein and Stein, 2000).

Further, we examine the moderating effect of PMC on the association between GPR and investment inefficiency relationship. To measure PMC, we employ the Herfindahl-Hirschman Index (HHI), a widely adopted proxy that captures the concentration level within an industry. The HHI is calculated as the sum of the squared market shares of all companies within the same industry (based on three-digit SIC). A firm's market share is determined by dividing its sales by the total sales of all companies in the industry. To simplify interpretation, we multiply HHI by (−1), meaning higher values indicate stronger competition. We construct a binary variable (Dummy_HHI) that gives the value of 1 if HHI is above the median; otherwise, 0 suggests that the firm operates in a competitive industry. Then, we modify our baseline equation (3) by incorporating the Dummy_HHI variable and its interaction with GPR (Dummy_HHI × GPR).

Our primary interest lies in the interaction term coefficient, which reflects the moderating influences of competition on the GPR-investment inefficiency relationship. The results, shown in Table 12 (model 6), indicate the coefficient of interaction term is significant and positive. This result shows that the influence of GPR on inefficient investment is higher for companies operational in competitive sectors (Wang et al., 2024). Several factors can explain this finding. First, firms in competitive industries are constantly under pressure to maintain market share and performance (Van Vo and Le, 2017), making them more sensitive to external uncertainties such as GPR. Consequently, these firms are more likely to react quickly to external uncertainties such as geopolitical risk, which can lead to rushed or overly cautious investment decisions. For example, firms may underinvest to avoid risk or overinvest in short-term defensive strategies (Abdoh and Maghyereh, 2020), both of which can worsen investment inefficiency. Second, firms in highly competitive sectors typically focus on short-term performance to outperform rivals, which may prompt them to prioritize immediate responses to geopolitical risks over long-term strategic goals. This short-termism can lead to suboptimal investment decisions, further exacerbating inefficiency.

Lastly, industry-level exposure to geopolitical risk offers another important critical dimension for understanding heterogeneity in investment inefficiencies across firms. It is plausible that certain industries - due to the nature of their operations, global supply chains, or geographic sensitivities, are more vulnerable to aggregate geopolitical shocks. For instance, petroleum firms may be particularly affected by tensions in the Middle East, given their reliance on stable energy markets and geopolitical stability in oil-producing regions. Similarly, transportation, recreation, and entertainment companies may be highly exposed to the risk of terrorist activities. Empirical evidence from Caldara and Iacoviello (2022) shows that industries such as precious metals, petroleum, and defense tend to be negatively affected by heightened geopolitical tensions, whereas sectors like coal, recreation, and entertainment may exhibit positive exposure. These differential responses suggest a heterogeneous impact of GPR across industries.

To empirically investigate this cross-sectional heterogeneity, we classify industries into two categories [10]: high and low exposure to GPR by employing Caldara and Iacoviello (2022) work. We construct a binary variable High_Exposure_Industry which equals one for firms operating in industries identified as highly exposed to geopolitical risks and zero otherwise. Then, we modify our baseline equation (3) by incorporating the High_Exposure_Industry variable and its interaction with GPR (High_Exposure_Industry × GPR) to evaluate whether the effect of GPR on investment inefficiency differs across industries. The interaction term coefficients (High_Exposure_Industry × GPR) measure how GPR impacts investment inefficiency differently for companies with higher versus lower levels of industry exposure to GPR. As presented in Table 12 (model 7), the coefficient on the interaction term is positive and statistically significant, indicating that the detrimental impact of GPR on investment inefficiency is amplified for firms in industries with higher exposure to geopolitical risk. This finding aligns with the evidence from Caldara and Iacoviello (2022) and more recent work by Wang et al. (2024), further reinforcing the view that industry characteristics is moderating the GPR-investment relationship. The observed differential impact on investment inefficiency can be attributed to the heightened complexity and unpredictability that firms in high-exposure industries face during geopolitical turmoil. These firms often operate in globally interconnected environments, where uncertainty related to supply chain continuity, regulatory shifts, and market access complicates the investment decision-making process. This increased uncertainty reduces the precision of managerial forecasts and impairs capital allocation efficiency, ultimately leading to greater misalignment between investment and firm fundamentals. As a result, overall investment efficiency deteriorates more sharply in these industries during periods of elevated geopolitical risk.

Identifying factors that contribute to investment inefficiency is essential for enabling firms to make optimal investment decisions. Existing research has largely concentrated on micro-level determinants of investment inefficiency (Lara et al., 2016; Yadav and Yadav, 2024a), with few examining macro-level determinants (Irawan and Okimoto, 2021; Yang et al., 2024). However, there has been no specific investigation into the impact of GPR on investment inefficiency. To address this gap, our study analyzes the association between GPR and inefficiency in investments by employing a sample of 43,182 observations from Indian-listed companies from 2002 to 2023. The results demonstrate that heightened GPR significantly exacerbates investment inefficiency, contributing to over- and under-investment, consistent with theoretical frameworks such as information asymmetry, real options theory, and agency theory. We further examine how firm-level CG practices can reduce the adverse effects of GPR. Our findings, robust to endogeneity concerns, suggest that firms with robust CG structures are better equipped to maintain investor confidence and reduce the positive influence of GPR on all the inefficiency of investment. Additionally, the adverse influences of GPR on investment inefficiency are more pronounced in firms with lower degrees of cash holdings, more irreversible investment, financially unconstrained companies, those operating in industries with higher exposure to geopolitical risk and operating in highly competitive industries.

Given these findings, our study offers several critical policy implications for various stakeholders. Targeted financial support mechanisms, such as subsidies or credit facilities, should be established to assist firms facing financial constraints due to GPR, promoting sustained investment during uncertain times, thereby reducing the inefficiency related to underinvestment. Adopting proactive investment strategies with real-time risk assessments can better equip firms to manage periods of geopolitical uncertainty, ensuring efficient capital allocation even in volatile environments. Furthermore, policymakers should enhance regulatory frameworks to improve transparency and strengthen corporate disclosure requirements, which would help reduce information asymmetry exacerbated by GPR that hinders efficient investment decisions. Investors should prioritize CG quality when making investment decisions in high GPR environments. Building on these insights, future research could further investigate cross-country and cross-industry responses to GPR and explore the impact of alternative uncertainty measures on corporate investment decisions.

Table A1

Variable measurement and data source

VariableMeasurementData source
Panel A: Dependent variable
Corporate investment inefficiency (INV_INEFF)The absolute value of the residuals from the investment model is described by Biddle et al. (2009) Authors’ calculations
Overinvestment (OI)The positive value of the residuals from the investment model is described by Biddle et al. (2009) Authors’ calculations
Underinvestment (UI)The absolute value of the negative residuals from the investment model is described by Biddle et al. (2009) Authors’ calculations
Panel B: Independent variables
Geopolitical risk (GPR)The yearly GPR index is calculated by taking the natural logarithm of the average GPR over the 12 months of the fiscal yearCaldara and Iacoviello (2022) 
Geopolitical threats (GPRT)The yearly GPRT index is calculated by taking the natural logarithm of the average GPRT over the 12 months of the fiscal yearCaldara and Iacoviello (2022) 
Geopolitical acts (GPRA)The yearly GPRA index is calculated by taking the natural logarithm of the average GPRA over the 12 months of the fiscal yearCaldara and Iacoviello (2022) 
Geopolitical risk India (GPR_IND)Country-specific GPR index for IndiaCaldara and Iacoviello (2022) 
Corporate Governance Index (CGI)A firm-level CG index is developed using 65 CG indicators. [ Appendix Table A2 for details.]Authors’ calculations
Panel C: Control variables
Tangibility (TANG)The net property, plant, and equipment ratio to the lagged total assetsAuthors’ calculations
Size (SIZE)Logarithm (total assets)Authors’ calculations
Return on asset (ROA)Income before extraordinary items divided by lagged total assetsAuthors’ calculations
Leverage (LEVE)Total debt to lagged total assetsAuthors’ calculations
Cash (CASH)The cash and cash equivalent are deflated by lagged total assetsAuthors’ calculations
Financial Slack (SLACK)Cash/net PPEAuthors’ calculations
Operating cycle (Ln_OC)The operating cycle is the sum of total inventory to cost of goods sold and total receivables to sales multiplied by 360Authors’ calculations
Return on equity (ROE)Income before extraordinary items is divided by its shareholders' equityAuthors’ calculations
Cash flow for operations (CFO)Operating cash flows/total lagged assetsAuthors’ calculations
Tobin's Q (TOBINSQ)The market value of assets/book value of assetsAuthors’ calculations
Firm age (Ln_Age)Log of (company's fiscal year - incorporation years)Authors’ calculations
GDP Growth (GDP_GRO)Yearly GDP growthWorld Bank
Table A2

Construction of CGI from 2009 to 2022

Serial NoDescriptionNo.Mean
A. Board structure index (BINDEX)
BSI 1If the firm's board size is 7–15, assign 1; if it is less than 7 or greater than 15, assign 07,0840.81
BSI 2The absence of chief executive officer (CEO) duality7,0840.71
BSI 3If non-executive directors (NEDs) serve as the board's chairman, at least one-third of the board must comprise independent directors (IDs)7,0840.49
BSI 4If executive directors (EDs) serve as the board's chairman, at least half of the board must comprise IDs7,0840.36
BSI 5There is at least one female director on the board7,0840.98
BSI 6Ensure that the board comprises at least 50% NEDs7,0840.97
BSI 7The board has evaluated its performance and the performance of its subcommittees using a code of conduct7,0840.97
BSI 8Former CEOs should not be board members7,0840.43
BSI 9A NED as the board chairman7,0840.53
BSI 10An ID serves as the board chairman7,0840.16
BSI 11The percentage of women directors on board is at least 30%7,0840.04
BSI 12The board of directors should include at least one promoter7,0840.48
BSI 13A female CEO is present on the board7,0840.03
BSI 14The board's chairman is a woman7,0840.02
BSI 15The board includes the nominee director7,0840.16
BSI 16At least four board meetings are held annually7,0840.99
BSI 17If the board chairman attended the most recent Annual General Meeting (AGM)7,0840.86
BSI 18At the last AGM, the CEO attended7,0840.89
BSI 19Less than half of all independent board directors serve on three or more boards7,0840.72
BSI 20CEO serves on less than three other public company boards7,0840.88
BSI 21The ED cannot hold directorship/chairmanship on more than three listed firms7,0840.55
BSI 22The NED cannot hold directorship on more than seven listed firms7,0840.47
BSI 23Across all companies, a director cannot be the chairman of more than five committees or a member of more than ten committees7,0840.89
BSI 24Board meetings must have 75% attendance, including all directors7,0840.84
BSI 25The report outlines an independent directors' meeting in the financial year. Ensure at least 75% attendance at independent director meetings7,0840.80
 Board sub-index score (0–100)7,08462.55
B. Audit committee index (AINDEX)
ACI 1There should be at least three directors on the audit committee7,0840.99
ACI 2The audit committee must have two-thirds independent directors7,0840.87
ACI 3An independent/non-executive director serves as the audit committee's chairperson7,0840.97
ACI 4Every financial year, the audit committee must hold at least four meetings7,0840.98
ACI 5The audit committee members must have attended at least 75% of the board meetings7,0840.96
ACI 6Less than half of audit committee directors hold directorships on three or more boards7,0840.69
ACI 7The audit committee should not include the CEO/managing director (MD)7,0840.82
ACI 8The audit committee chairman and board chairman should not be the same7,0840.94
ACI 9The chairman of the audit committee attends the company's last AGM7,0840.88
ACI 10The audit committee must be entirely consisting of NEDs7,0840.68
ACI 11The audit committee includes at least one person with expertise and understanding in finance or accounting7,0840.72
ACI 12Ensure that one of the auditors is affiliated with BIG four auditing firms7,0840.32
ACI 13Every five years, the audit partner should change7,0840.85
ACI 14Check the auditor's opinion7,0840.97
ACI 15The amount of consulting fees paid to auditors is lower than that of audit fees7,0840.91
 Audit sub-index score (0–100)7,08483.86
C. Nomination and Remuneration (N&R) Committee Index (NRINDEX)
NRI 1There should be at least three directors on the nomination and remuneration committee7,0840.94
NRI 2A non-executive/independent director serves as the N&R committee's chairman7,0840.96
NRI 3The N&R committee directors must comprise at least 50% of independent or non-executive directors7,0840.95
NRI 4At least four meetings of the N&R committee must be held each financial year7,0840.24
NRI 5At least two-thirds of the N&R committee directors attended the meetings7,0840.96
NRI 6The N&R committee is entirely comprised of non-executive/independent directors7,0840.85
NRI 7The board chairman should not serve as chairman of the N&R committee7,0840.98
NRI 8The N&R Committee Chairman attended the last AGM7,0840.83
 N&R sub-index score (0–100)7,08483.92
D. Ownership Structure Index (OINDEX)
OI 1Promoter ownership is present7,0840.96
OI 2Determine the shareholdings of domestic institutional investors (DII). Consider it one if a company's DII ownership exceeds 5% and zero otherwise7,0840.55
OI 3Determine the shareholdings of foreign institutional investors (FII). Consider it one if a company's FII ownership exceeds 5% and zero otherwise7,0840.51
OI 4Determine the shareholdings of institutional investors. Consider it one if a company's institutional investors ownership exceeds 5% and zero otherwise7,0840.73
OI 5Government ownership is greater than 5%7,0840.07
OI 6Existence of concentrated ownership7,0840.61
 Ownership sub-index score (0–100)7,08456.75
E. Disclosure Index (DINDEX)
DI 1Disclosure of the percentage of each director's compensation to the median employee compensation7,0840.44
DI 2Disclosure of financial information on compensation, particularly bonuses, and incentives awarded to directors7,0840.90
DI 3If the corporation makes available the non-executive directors/independent directors sitting fees for committee meetings and board meetings, as well as their compensation7,0840.84
DI 4The company's annual report discloses the remuneration of the CEO7,0840.93
DI 5The board report includes information on crucial managerial personnel appointed and resigned throughout the fiscal year7,0840.68
DI 6Whistle-blower policy as a mechanism for directors and employees' vigilance7,0840.82
DI 7There is a company policy against insider trading and a board code of conduct7,0840.55
DI 8The companies present a corporate social responsibility (CSR) sustainability committee7,0840.58
DI 9Disclosure of environmental, social, and governance (ESG) score by the Firm7,0840.83
DI 10Disclosure regarding global reporting initiative (GRI) Compliance7,0840.14
DI 11Employee stock ownership plan (ESOP) was disclosed7,0840.20
 Disclosure sub-index score (0–100)7,08462.39
CGI Score (0–100) 7,08469.49

Note(s): This table provides the governance indicators used to construct the CGI, the total number of firm-year observations, and the average value for each. Data is manually collected from annual reports, CMIE’s ProwessIQ, and respective company websites. BSI is board structure indicators, ACI is audit committee indicators, NRI is nomination and remuneration indicators, OI is ownership indicators, and DI is disclosure indicators

3.

The GPR indices data is accessed through the official website at https://www.matteoiacoviello.com/gpr.htm.

4.

The list of newspapers comprises the Daily Telegraph, Financial Times, Chicago Tribune, The Guardian, Los Angeles Times, The Globe and Mail, USA Today, The Wall Street Journal, The New York Times, and The Washington Post.

5.

We constructed the CGI using data from 2009 to 2022, a period chosen due to data availability and the significant regulatory reforms that enhanced governance standards in India post-2009. Key reforms, such as the Companies Act of 2013, amendments to Clause 49 of the Listing Agreement, and SEBI's introduction of LODR (Listing Obligations and Disclosure Requirements), have made post-2009 data more reliable and consistent for analysis.

6.

GTA was sourced from the Global Terrorism Database, which tracks incidents of terrorism worldwide.

7.

We observed consistent results with other financial constraint metrics, such as the Whited-Wu Index and the Kaplan-Zingales Index. Thus, these findings are not shown separately to conserve space.

8.

Following Hadlock and Pierce (2010), Size and age (SAINDEXi,t)=(0.737×SIZEi,t)+(0.043×SIZEi,t2)(0.040×AGEi,t). The variable SIZE and AGE measurement defined in  Appendix Table A1.

9.

Following Schauer et al. (2019), FCPINDEXi,t=(0.123×SIZEi,t1)(0.024×INTERESTCOVERAGEi,t1)(4.404×ROAi,t1) (1.716×CASHi,t1).

Interest coverage = earnings before interest and taxes/interest expenses. The other variables, such as SIZE, ROA, and CASH measurement, are defined in  Appendix Table A1.

10.

Industries classified as highly exposed to GPR include sectors such as pharmaceutical products, shipping containers, communication, electrical equip, steel works, construction materials, real estate, railroad equip, retail, apparel, aircraft, computers, business supplies, construction, shipbuilding, hotels, computer software, personal services, machinery, business services, entertainment, chemicals, banking, transportation, printing and publishing, restaurants, motels, medical equip, healthcare, trading, fabricated products, candy and soda, automobiles and trucks. Conversely, industries with low exposure include: metal mining, textiles, insurance, measuring and control equip., recreation, wholesale, food products, utilities, consumer goods, coal, beer and liquor, agriculture, tobacco products, petroleum and natural gas, rubber and plastic, precious metals, defense, other.

The supplementary material for this article can be found online.

Abdoh
,
H.
and
Maghyereh
,
A.
(
2020
), “
Product market competition, oil uncertainty and corporate investment
”,
International Journal of Managerial Finance
, Vol. 
16
No. 
5
, pp. 
645
-
671
, doi: .
Abdullah
,
M.
,
Tiwari
,
A.K.
,
Hossain
,
M.R.
and
Abakah
,
E.J.A.
(
2024
), “
Geopolitical risk and firm-level environmental, social and governance (ESG) performance
”,
Journal of Environmental Management
, Vol. 
363
, 121245, doi: .
Adra
,
S.
,
Gao
,
Y.
,
Huang
,
J.
and
Yuan
,
J.
(
2023
), “
Geopolitical risk and corporate payout policy
”,
International Review of Financial Analysis
, Vol. 
87
, 102613, doi: .
Ahuja
,
G.
and
Novelli
,
E.
(
2017
), “
Activity overinvestment: the case of R&D
”,
Journal of Management
, Vol. 
43
No. 
8
, pp. 
2456
-
2468
.
Akron
,
S.
,
Demir
,
E.
,
Díez-Esteban
,
J.M.
and
García-Gómez
,
C.D.
(
2022
), “
How does uncertainty affect corporate investment inefficiency? Evidence from Europe
”,
Research in International Business and Finance
, Vol. 
62
, 101752, doi: .
Asadollah
,
O.
,
Carmy
,
L.S.
,
Hoque
,
M.R.
and
Yilmazkuday
,
H.
(
2024
), “
Geopolitical risk, supply chains, and global inflation
”,
The World Economy
, Vol. 
47
No. 
8
, pp. 
3450
-
3486
, doi: .
Bates
,
T.W.
,
Kahle
,
K.M.
and
Stulz
,
R.M.
(
2009
), “
Why do US firms hold so much more cash than they used to?
”,
The Journal of Finance
, Vol. 
64
No. 
5
, pp. 
1985
-
2021
, doi: .
Benlemlih
,
M.
and
Bitar
,
M.
(
2018
), “
Corporate social responsibility and investment efficiency
”,
Journal of Business Ethics
, Vol. 
148
No. 
3
, pp. 
647
-
671
, doi: .
Bernanke
,
B.S.
(
1983
), “
Irreversibility, uncertainty, and cyclical investment
”,
Quarterly Journal of Economics
, Vol. 
98
No. 
1
, pp. 
85
-
106
, doi: .
Bertrand
,
M.
and
Mullainathan
,
S.
(
2003
), “
Enjoying the quiet life? Corporate governance and managerial preferences
”,
Journal of Political Economy
, Vol. 
111
No. 
5
, pp. 
1043
-
1075
, doi: .
Biddle
,
G.C.
,
Hilary
,
G.
and
Verdi
,
R.S.
(
2009
), “
How does financial reporting quality relate to investment efficiency?
”,
Journal of Accounting and Economics
, Vol. 
48
Nos
2-3
, pp. 
112
-
131
, doi: .
Black
,
B.
,
De Carvalho
,
A.G.
,
Khanna
,
V.
,
Kim
,
W.
and
Yurtoglu
,
B.
(
2017
), “
Corporate governance indices and construct validity
”,
Corporate Governance: An International Review
, Vol. 
25
No. 
6
, pp. 
397
-
410
, doi: .
Caldara
,
D.
and
Iacoviello
,
M.
(
2022
), “
Measuring geopolitical risk
”,
American Economic Review
, Vol. 
112
No. 
4
, pp. 
1194
-
1225
, doi: .
Carney
,
R.W.
,
El Ghoul
,
S.
,
Guedhami
,
O.
and
Wang
,
H.H.
(
2024
), “
Geopolitical risk and the cost of capital in emerging economies
”,
Emerging Markets Review
, Vol. 
61
, 101149, doi: .
Chen
,
R.
,
El Ghoul
,
S.
,
Guedhami
,
O.
and
Wang
,
H.
(
2017
), “
Do state and foreign ownership affect investment efficiency? Evidence from privatizations
”,
Journal of Corporate Finance
, Vol. 
42
, pp. 
408
-
421
, doi: .
Chen
,
F.
,
Hope
,
O.-K.
,
Li
,
Q.
and
Wang
,
X.
(
2011
), “
Financial reporting quality and investment efficiency of private firms in emerging markets
”,
The Accounting Review
, Vol. 
86
No. 
4
, pp.
1255
-
1288
, doi: .
Chow
,
Y.P.
,
Muhammad
,
J.
,
Bany-Ariffin
,
A.
and
Cheng
,
F.F.
(
2018
), “
Macroeconomic uncertainty, corporate governance and corporate capital structure
”,
International Journal of Managerial Finance
, Vol. 
14
No. 
3
, pp. 
301
-
321
, doi: .
Cooper
,
I.
(
2006
), “
Asset pricing implications of nonconvex adjustment costs and irreversibility of investment
”,
The Journal of Finance
, Vol. 
61
No. 
1
, pp. 
139
-
170
, doi: .
Cutillas Gomariz
,
M.F.
and
Ballesta
,
J.P.S.
(
2014
), “
Financial reporting quality, debt maturity and investment efficiency
”,
Journal of Banking and Finance
, Vol. 
40
, pp. 
494
-
506
, doi: .
Denis
,
D.J.
and
Sibilkov
,
V.
(
2010
), “
Financial constraints, investment, and the value of cash holdings
”,
The Review of Financial Studies
, Vol. 
23
No. 
1
, pp. 
247
-
269
, doi: .
Dissanayake
,
R.
,
Mehrotra
,
V.
and
Wu
,
Y.
(
2018
), “
Geopolitical uncertainty and corporate investment
”,
SSRN
.
Dixit
,
A.K.
and
Pindyck
,
R.S.
(
1994
),
Investment under Uncertainty
,
Princeton University Press
,
Princeton, NJ
.
DTCC
(
2021
), “
2021 Annual Report
”,
The Depository Trust & Clearing Corporation
.
Fazzari
,
S.
,
Hubbard
,
R.G.
and
Petersen
,
B.
(
1988
), “
Investment, financing decisions, and tax policy
”,
The American Economic Review
, Vol. 
78
No. 
2
, pp. 
200
-
205
.
Fiorillo
,
P.
,
Meles
,
A.
,
Pellegrino
,
L.R.
and
Verdoliva
,
V.
(
2023
), “
Geopolitical risk and stock liquidity
”,
Finance Research Letters
, Vol. 
54
, 103687, doi: .
Gkillas
,
K.
,
Gupta
,
R.
and
Pierdzioch
,
C.
(
2020
), “
Forecasting realized gold volatility: is there a role of geopolitical risks?
”,
Finance Research Letters
, Vol. 
35
, 101280, doi: .
Gulen
,
H.
and
Ion
,
M.
(
2016
), “
Policy uncertainty and corporate investment
”,
Review of Financial Studies
, Vol. 
29
No. 
3
, pp. 
523
-
564
.
Hadlock
,
C.J.
and
Pierce
,
J.R.
(
2010
), “
New evidence on measuring financial constraints: moving beyond the KZ index
”,
Review of Financial Studies
, Vol. 
23
No. 
5
, pp. 
1909
-
1940
, doi: .
Hainmueller
,
J.
(
2012
), “
Entropy balancing for causal effects: a multivariate reweighting method to produce balanced samples in observational studies
”,
Political Analysis
, Vol. 
20
No. 
1
, pp. 
25
-
46
, doi: .
Hamza
,
T.
,
Barka
,
Z.
,
Verdie
,
J.-F.
and
Al Sayah
,
M.
(
2024
), “
Economic policy uncertainty and SMEs' investment efficiency in France: does competitive pressure matter?
”,
European Business Review
, Vol. 
36
No. 
4
, pp. 
449
-
467
, doi: .
Haque
,
T.
,
Pham
,
T.P.
and
Yang
,
J.
(
2023
), “
Geopolitical risk, financial constraints, and tax avoidance
”,
Journal of International Financial Markets, Institutions and Money
, Vol. 
88
, 101858, doi: .
Hou
,
F.
,
Tang
,
W.
,
Wang
,
H.
and
Xiong
,
H.
(
2021
), “
Economic policy uncertainty, marketization level and firm-level inefficient investment: evidence from Chinese listed firms in energy and power industries
”,
Energy Economics
, Vol. 
100
, 105353, doi: .
Hovakimian
,
G.
(
2011
), “
Financial constraints and investment efficiency: internal capital allocation across the business cycle
”,
Journal of Financial Intermediation
, Vol. 
20
No. 
2
, pp. 
264
-
283
, doi: .
Huang
,
W.
,
Jiang
,
F.
,
Liu
,
Z.
and
Zhang
,
M.
(
2011
), “
Agency cost, top executives' overconfidence, and investment-cash flow sensitivity—evidence from listed companies in China
”,
Pacific-Basin Finance Journal
, Vol. 
19
No. 
3
, pp. 
261
-
277
, doi: .
Irawan
,
D.
and
Okimoto
,
T.
(
2021
), “
Overinvestment and macroeconomic uncertainty: evidence from renewable and non-renewable resource firms
”,
Journal of Economic Dynamics and Control
, Vol. 
126
, 103973, doi: .
Jensen
,
M.C.
and
Meckling
,
W.H.
(
1976
), “
Theory of the firm: managerial behavior, agency costs and ownership structure
”,
Journal of Financial Economics
, Vol. 
3
No. 
4
, pp. 
305
-
360
, doi: .
Kanagaretnam
,
K.
,
Lobo
,
G.J.
and
Whalen
,
D.J.
(
2007
), “
Does good corporate governance reduce information asymmetry around quarterly earnings announcements?
”,
Journal of Accounting and Public Policy
, Vol. 
26
No. 
4
, pp. 
497
-
522
, doi: .
Khoo
,
J.
and
Cheung
,
A.W.K.
(
2021
), “
Does geopolitical uncertainty affect corporate financing? Evidence from MIDAS regression
”,
Global Finance Journal
, Vol. 
47
, 100519, doi: .
King
,
G.
and
Nielsen
,
R.
(
2019
), “
Why propensity scores should not be used for matching
”,
Political Analysis
, Vol. 
27
No. 
4
, pp. 
435
-
454
, doi: .
Kotcharin
,
S.
and
Maneenop
,
S.
(
2020
), “
Geopolitical risk and corporate cash holdings in the shipping industry
”,
Transportation Research Part E: Logistics and Transportation Review
, Vol. 
136
, 101862, doi: .
KPMG
(
2023
), “
KPMG 2023 India CEO Outlook: navigating complexity with resilience
”,
available at:
 https://assets.kpmg.com/content/dam/kpmg/in/pdf/2023/10/kpmg-2023-India-ceo-outlook.pdf
Lai
,
F.
,
Xiong
,
D.
,
Zhu
,
S.
,
Li
,
Y.
and
Tan
,
Y.
(
2023
), “
Will geopolitical risks only inhibit corporate investment? Evidence from China
”,
Pacific-Basin Finance Journal
, Vol. 
82
, 102134, doi: .
Lara
,
J.M.G.
,
Osma
,
B.G.
and
Penalva
,
F.
(
2016
), “
Accounting conservatism and firm investment efficiency
”,
Journal of Accounting and Economics
, Vol. 
61
No. 
1
, pp. 
221
-
238
, doi: .
Le
,
A.-T.
and
Tran
,
T.P.
(
2021
), “
Does geopolitical risk matter for corporate investment? Evidence from emerging countries in Asia
”,
Journal of Multinational Financial Management
, Vol. 
62
, 100703, doi: .
Lee
,
C.-C.
and
Wang
,
C.-W.
(
2021
), “
Firms' cash reserve, financial constraint, and geopolitical risk
”,
Pacific-Basin Finance Journal
, Vol. 
65
, 101480, doi: .
Lee
,
C.-C.
,
Olasehinde-Williams
,
G.
and
Akadiri
,
S.S.
(
2021
), “
Are geopolitical threats powerful enough to predict global oil price volatility?
”,
Environmental Science and Pollution Research
, Vol. 
28
No. 
22
, pp. 
28720
-
28731
, doi: .
Liu
,
X.
(
2013
), “
The value of holding scarce wind resource—a cause of overinvestment in wind power capacity in China
”,
Energy Policy
, Vol. 
63
, pp. 
97
-
100
, doi: .
Malmendier
,
U.
and
Tate
,
G.
(
2005
), “
CEO overconfidence and corporate investment
”,
The Journal of Finance
, Vol. 
60
No. 
6
, pp. 
2661
-
2700
, doi: .
Maurya
,
P.K.
,
Bansal
,
R.
and
Mishra
,
A.K.
(
2023
), “
Russia–Ukraine conflict and its impact on global inflation: an event study-based approach
”,
Journal of Economic Studies
, Vol. 
50
No. 
8
, pp. 
1824
-
1846
, doi: .
Nguyen
,
X.T.
,
Nguyen
,
T.C.
and
Hoang
,
H.V.
(
2025
), “
Geopolitical risk and corporate investment efficiency
”,
Finance Research Letters
, 107112, doi: .
Nguyen
,
T.C.
and
Thuy
,
T.H.
(
2023
), “
Geopolitical risk and the cost of bank loans
”,
Finance Research Letters
, Vol. 
54
, 103812, doi: .
Oster
,
E.
(
2019
), “
Unobservable selection and coefficient stability: theory and evidence
”,
Journal of Business and Economic Statistics
, Vol. 
37
No. 
2
, pp. 
187
-
204
, doi: .
Pástor
,
Ľ.
and
Veronesi
,
P.
(
2013
), “
Political uncertainty and risk premia
”,
Journal of Financial Economics
, Vol. 
110
No. 
3
, pp. 
520
-
545
, doi: .
Phan
,
D.H.B.
,
Tran
,
V.T.
and
Iyke
,
B.N.
(
2022
), “
Geopolitical risk and bank stability
”,
Finance Research Letters
, Vol. 
46
, 102453, doi: .
Quagliariello
,
M.
(
2009
), “
Macroeconomic uncertainty and banks' lending decisions: the case of Italy
”,
Applied Economics
, Vol. 
41
No. 
3
, pp. 
323
-
336
, doi: .
Rumokoy
,
L.J.
,
Omura
,
A.
and
Roca
,
E.
(
2023
), “
Geopolitical risk and corporate investment in the metals and mining industry: evidence from Australia
”,
Pacific-Basin Finance Journal
, Vol. 
79
, 101991, doi: .
Rutherford
,
M.A.
,
Buchholtz
,
A.K.
and
Brown
,
J.A.
(
2007
), “
Examining the relationships between monitoring and incentives in corporate governance
”,
Journal of Management Studies
, Vol. 
44
No. 
3
, pp. 
414
-
430
, doi: .
Saragih
,
A.H.
(
2024
), “
The power of good corporate governance in activating the impact of internal information quality on tax savings
”,
Journal of Accounting Literature
, Vol. 
ahead-of-print
No. 
ahead-of-print
, doi: .
Scharfstein
,
D.S.
and
Stein
,
J.C.
(
2000
), “
Herd behavior and investment: reply
”,
American Economic Review
, Vol. 
90
No. 
3
, pp. 
705
-
706
, doi: .
Schauer
,
C.
,
Elsas
,
R.
and
Breitkopf
,
N.
(
2019
), “
A new measure of financial constraints applicable to private and public firms
”,
Journal of Banking and Finance
, Vol. 
101
, pp. 
270
-
295
, doi: .
Van Vo
,
L.
and
Le
,
H.T.T.
(
2017
), “
Strategic growth option, uncertainty, and R&D investment
”,
International Review of Financial Analysis
, Vol. 
51
, pp. 
16
-
24
.
Wang
,
Y.
,
Ji
,
Y.
,
Chen
,
X.
and
Song
,
C.
(
2014
), “
Inflation, operating cycle, and cash holdings
”,
China Journal of Accounting Research
, Vol. 
7
No. 
4
, pp. 
263
-
276
, doi: .
Wang
,
Y.
,
Chen
,
C.R.
,
Chen
,
L.
and
Huang
,
Y.S.
(
2016
), “
Overinvestment, inflation uncertainty, and managerial overconfidence: firm level analysis of Chinese corporations
”,
The North American Journal of Economics and Finance
, Vol. 
38
, pp. 
54
-
69
, doi: .
Wang
,
K.-H.
,
Xiong
,
D.-P.
,
Mirza
,
N.
,
Shao
,
X.-F.
and
Yue
,
X.-G.
(
2021
), “
Does geopolitical risk uncertainty strengthen or depress cash holdings of oil enterprises? Evidence from China
”,
Pacific-Basin Finance Journal
, Vol. 
66
, 101516, doi: .
Wang
,
X.
,
Wu
,
Y.
and
Xu
,
W.
(
2024
), “
Geopolitical risk and investment
”,
Journal of Money, Credit and Banking
, Vol. 
56
No. 
8
, pp. 
2023
-
2059
, doi: .
Yadav
,
A.S.
and
Yadav
,
I.S.
(
2024a
), “
Debt maturity, governance and investment efficiency: new evidence from emerging market
”,
Asian Review of Accounting
, Vol. 
33
No. 
1
, pp. 
132
-
162
, doi: .
Yadav
,
A.S.
and
Yadav
,
I.S.
(
2024b
), “
Does corporate governance affect investment efficiency of Indian firms? Panel evidence from new governance indices
”,
Journal of Corporate Accounting and Finance
, Vol. 
35
No. 
3
, pp. 
327
-
349
, doi: .
Yang
,
B.
and
Song
,
X.
(
2023
), “
Does oil price uncertainty matter in firm innovation? Evidence from China
”,
International Review of Financial Analysis
, Vol. 
88
, 102687, doi: .
Yang
,
T.
,
Dong
,
Q.
,
Du
,
M.
and
Du
,
Q.
(
2023
), “
Geopolitical risks, oil price shocks and inflation: evidence from a TVP–SV–VAR approach
”,
Energy Economics
, Vol. 
127
, 107099, doi: .
Yang
,
B.
,
An
,
H.
and
Song
,
X.
(
2024
), “
Oil price uncertainty and corporate inefficient investment: evidence from China
”,
The North American Journal of Economics and Finance
, Vol. 
70
, 102089, doi: .
Zhang
,
Y.
,
He
,
J.
,
He
,
M.
and
Li
,
S.
(
2023
), “
Geopolitical risk and stock market volatility: a global perspective
”,
Finance Research Letters
, Vol. 
53
, 103620, doi: .
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