4.4. Empirical Analysis of the Effect of Dividend Policy on Firm Performance and Value
Table 3 reports the effect of dividends on firm value with Tobin’s Q as the proxy for market performance. Dividend policy in Panel A has a coefficient of approximately −0.125 and a t-statistic of −6.933, negatively impacting Tobin’s Q and being statistically significant at a 1% level, whereas in Panel B, it has a coefficient of approximately 0.131, positively impacting Tobin’s Q and being statistically significant at a 1% level (t-statistic of 7.719). We observe opposite effects, significant in both, but whose magnitude and direction differ. Cash dividend payment in Panel A has a coefficient of approximately 19.875, positively impacting Tobin’s Q and being statistically significant at a 1% level (t-statistic 19.924). Panel B has a coefficient of approximately 17.079, positively impacting Tobin’s Q and being statistically significant at a 1% level (t-statistic 17.510). A similar positive impact was significant in both, with a slightly lower magnitude in Panel B. The dividend payout ratio in both Panel A and Panel B is not statistically significant at conventional levels with −0.008, t-statistic −0.253, and −0.006, t-statistic −0.255, respectively. Both are not significant or consistent across panels. In both estimations (Panel A: Pooled OLS and Panel B: LSDV - Fixed Effects), the debt ratio exhibits significant coefficients ranging from −1.424 to −0.578 in the OLS estimation, and from −1.294 to −0.670 in the LSDV estimation, all at the 1% significance level. Both methods show that a higher debt ratio is associated with a decrease in Tobin’s Q. Free cash flow exhibits significant coefficients ranging from 0.435 to 2.028 (all significant at the 1% level) in the OLS estimation and from 0.177 to 0.765 (all significant at the 1% level) in the LSDV estimation, both methods indicating a positive association with Tobin’s Q. Ownership concentration (OWN.CONC) exhibits significant coefficients ranging from −0.005 to −0.010 (all significant at the 1% level) in the OLS estimation and from −0.004 to −0.006 (all significant at the 1% level) in LSDV. Both methods suggest that higher ownership concentration is associated with a decrease in Tobin’s Q. In order to confirm if being a member firm of a Chaebol conglomerate impacts the relationship, we introduce DummyChaebol. In the OLS estimation method, the coefficients range from 0.027 to 0.376 and are significant at 1%. In LSDV, the coefficients range from −0.028 to 0.200 and are significant at 1%. Both methods largely suggest that being a part of a Chaebol group is positively associated with Tobin’s Q. The variable Ln.Asset_Intensity in OLS has coefficients ranging from −0.087 to −0.018 and are all significant at 1%. In LSDV, coefficients range from −0.079 to −0.166 and are all significant at 1%. Both methods show that higher asset intensity is associated with a decrease in Tobin’s Q. The variable Ln.Employee_Intensity in Panel A (OLS) indicates that coefficients range from 0.021 to 0.118 and are all significant at 1%. LSDV coefficients range from 0.023 to −0.009 and are all significant at 1%. Both methods agree that higher employee intensity is associated with a higher Tobin’s Q. Size in OLS estimations reveals that coefficients range from −0.027 to −0.007 and are all significant at 1%. The LSDV coefficients range from −0.031 to −0.024 and are all significant at 1%. Both methods show that larger firms tend to have a lower Tobin’s Q. These control variables are included to account for various factors that may influence Tobin’s Q, and their significant coefficients provide insights into the specific impact each variable has on firm value in the Korean context. The constant has coefficients ranging from 1.975 to 3.787 and are all statistically significant at a 1% level, with t-statistics ranging from 3.059 to 19.231. The constant represents the baseline value of Tobin’s Q when all independent variables are zero. The positive coefficients suggest a positive baseline value for Tobin’s Q. Regarding model fitness variables, OLS exhibits R-squared and adjusted R-squared ranging from 0.144 to 0.218 and 0.142 to 0.217, respectively. In LSDV, the R-squared ranges from 0.645 to 0.716, and the adjusted R-squared ranges from 0.608 to 0.668. LSDV generally shows higher R-squared values, indicating a better fit. Overall model significance, measured by F-statistic and Prob(F-statistic), is higher in OLS (F-statistics ranging from 114.628 to 190.238, Prob(F-statistic) significant at 0.000), suggesting better overall model fit compared to LSDV, which records F-statistics ranging from 17.472 to 24.343, and Prob(F-statistic) is significant at 0.000 for all four model equations. Results show that the coefficients for dividend policy, cash dividend payment, and dividend yield differ in sign between OLS and LSDV, indicating sensitivity to estimation methods. When fixed effects are considered, the impact of dividend policy shifts from negative to positive, emphasizing the necessity of accounting for unobservable firm-specific characteristics.
Table 4 reports the effect of dividend policy on firm value with market-to book as the proxy for market performance. In the Pooled OLS model, a significant negative association emerges between dividend policy and the market-to-book ratio (Coeff.: −0.225 ***, t-stat: −6.988). However, the fixed effect model reveals a positive relationship, indicating a reversal of the negative association observed in the Pooled OLS model (Coeff.: 0.220 ***, t-stat: 6.982). The sign reversal implies that there are unobserved firm-specific factors influencing the relationship, suggesting that the initial negative association in the Pooled OLS model might be spurious, influenced by unobserved factors, while the fixed effect model, accounting for these factors, suggests a positive association between dividend policy and the market-to-book ratio. This implies that firms with certain characteristics, not captured by the observed variables, are likely to adopt a dividend policy, and these characteristics are positively related to firm value. Cash dividend payment in Panel A with a coefficient of 31.671 (t-statistic = 17.641), positively impacting the market-to-book ratio, is statistically significant at a 1% level. Panel B, with a coefficient of 29.167 (t-statistic = 16.036), positively impacts the market-to-book ratio at a 1% statistical significance level. Dividend yield in Panels A and B negatively impact the market-to-book ratio with a coefficient of −22.473 (t-statistic of −20.621) and −12.209 (t-statistic of −11.498), which are statistically significant at a 1% level, respectively. The dividend payout ratio has an insignificant impact in Panels A and B. In both the Pooled OLS and fixed effect models, the debt ratio has a constant and significant positive relationship with the market-to-book ratio (coefficients vary from 0.308 to 0.663), showing that it improves firm value. Free cash flow has a significant positive connection in the Pooled OLS model but loses significance in the fixed effect model (coefficients range from 0.306 to 1.994). In both models, ownership concentration has a robust and significant negative relationship with the market-to-book ratio (coefficients range from −0.009 to −0.010), demonstrating that higher ownership concentration is associated with lower company value. In both models, being a Chaebol is significantly associated with a higher market-to-book ratio (coefficients range from 0.073 to 0.300), showing the importance of Chaebol status on business value. Asset intensity has a consistently significant negative relationship with the market-to-book ratio in both models (coefficients range from −0.030 to −0.139), indicating the impact of asset intensity on company value. Employee intensity has a significant positive connection with the market-to-book ratio in the Pooled OLS model but loses significance in the fixed effect model (coefficients around 0.040 to 0.186), indicating that its influence may vary when firm-specific effects are taken into consideration. Firm size has no significant association with the market-to-book ratio in the Pooled OLS model but becomes negatively significant in the fixed effect model (coefficients range from −0.004 to −0.044), implying the varied impact of firm size on firm value.
4.5. Discussion
The observed trend in the relationship between dividend policy and firm value, as measured by Tobin’s Q and the market-to-book ratio, displays noteworthy patterns. The Pooled OLS model consistently finds a negative relationship between dividend policy and the market-to-book ratio (Coeff.: −0.225 ***, t-stat: −6.988), replicating Tobin’s Q findings. The fixed effect model, on the other hand, reveals a notable reversal, implying that unobserved firm-specific factors may impact this association. The positive connection in the fixed effect model (Coeff.: 0.220 ***, t-stat: 6.982) suggests that firms that adopt a dividend policy may have specific qualities that are positively related to company value that are not sufficiently reflected by observed variables. This result shows the significance of accounting for specific company effects when evaluating the impact of dividend policy on firm value in the Korean market.
Analyzing specific dividend policy proxies deepens the account. Cash dividend payments consistently have a positive impact on Tobin’s Q and the market-to-book ratio in both models, indicating how significant they are in increasing company worth. An observed negative and significant effect of dividend yield on firm value in the full study sample suggests that, on average, an increase in the dividend yield ratio is associated with a decrease in firm value. This implies that, for the overall sample, a higher proportion of dividends relative to the stock price may be viewed unfavorably by investors, impacting the market valuation negatively. While the dividend payout ratio is negative, it loses statistical significance in both models. This evidence highlights such agency issues between managers and stockholders. The consistent negative relationship between dividend yield and firm value reveals potential agency issues inherent in financial signaling and future prospects. This striking trend highlights three major agency issues. First, Korean firms with greater dividend yields, indicating financial instability, suffer lower valuations under information asymmetry and adverse selection, showing management’s difficulty in convincing investors about future growth in the face of information asymmetry. Second, within managerial entrenchment, the negative connection means that managers, particularly in non-Chaebol enterprises, fight dividends, putting personal interests over shareholder wealth and potentially undermining firm value. Third, agency costs and misalignment demonstrate a persistent negative effect associated with managers withholding dividends, saving capital for non-value-enhancing activities, and leading to misalignment with shareholder interests (
Jensen and Meckling 1976;
Wang 2006;
Stulz 1990;
Lee 2022).
In
Table 5, the result of regression analysis testing the effect of dividend policy on firm performance (return on assets) is presented. In Pooled OLS (Panel A) Model 1, the dependent variable is the return on assets (also known as ROA), while dividend policy is the independent variable of interest. The coefficient is 0.031 ***, and the t-statistic is (19.918). This evidence shows that the coefficient for the dividend policy variable is statistically significant at the 1% level. This suggests a positive relationship between dividend policy and ROA. When compared to the fixed effects model (Panel B Model 1), we observe that the coefficient is 0.024 *** and the t-statistic is (12.161). In the fixed effects model, the dividend policy coefficient stays statistically significant at the 1% level. The minor decrease in the coefficient implies that the fixed effects model accommodates individual differences. In Pooled OLS (Panel A) Model 2, the dependent variable remains return on assets (ROA), while dividend payment in cash is the independent variable. The coefficient is 2.163 ***, and the t-statistic is (25.091). The cash dividend payment coefficient in Model 2 is statistically significant at the 1% level, indicating a large positive influence on ROA. When compared to the fixed effects model (Panel B Model 2), the coefficient is 2.063 ***, and the t-statistic is (17.779). In the fixed effects model, the coefficient for cash dividend payment remained highly significant at the 1% level, indicating the robustness of the positive relationship with ROA. In Pooled OLS (Panel A) Model 3, the dependent variable is ROA (return on assets), while dividend yield is the independent variable. The coefficient is 0.707 ***, and the t-statistic is (12.861). At the 1% significance level, Model 3 demonstrates a statistically significant positive relationship between dividend yield and ROA. When compared to the fixed effects model (Panel B Model 3), the coefficient is 0.599 ***, and the t-statistic is (8.751). The positive relationship between dividend yield and ROA remains significant in the fixed effects model at the 1% level but with a slightly decreased coefficient. Return on assets (ROA) is the dependent variable in Model 4, Pooled OLS (Panel A), whereas the dividend payout ratio is the independent variable. Model 4 demonstrates a statistically significant positive correlation between the dividend payout ratio and ROA at the 1% significance level, with a coefficient of 0.010 *** and t-statistic of 3.807. When compared to the fixed effects model (Panel B Model 4), the coefficient is −0.004 and the t-statistic is (−1.552). When firm-specific factors are taken into account, the relationship between the dividend payout ratio and ROA turns negative and statistically insignificant at the 12% level in the fixed effects model. Looking at the control variables in the Pooled OLS vs. the fixed effects model, we found that the debt ratio in the Pooled OLS (Panel A) has a coefficient range (Models 1 to 4) of −0.083 *** to −0.055 *** and a t-statistic of −23.516 to −15.668. The coefficients in Models 1 to 4 range from −0.116 *** to −0.092 *** in the fixed effects (Panel B), whereas the t-statistic ranges from −18.035 to −14.429. In comparison, the debt ratio consistently demonstrates a strong negative relationship with ROA across both Pooled OLS and fixed effects models, with slightly bigger coefficients in the fixed effects model. The negative effect suggests that excessive leverage reduces the firm’s performance with specific reference to its return on assets. Free cash flow in Pooled OLS (Panel A) has coefficients (Models 1 to 4) ranging from 0.301 *** to 0.368 *** and t-statistics ranging from 27.902 to 33.364. Equally, the coefficients in Models 1 to 4 range from 0.217 *** to 0.238 ***, while the t-statistic ranges from 19.446 to 20.799 in the fixed effects (Panel B). In both the Pooled OLS and fixed effects estimations, free cash flow has a positive and statistically significant relationship with ROA, with identical magnitudes. The result suggests that firms with augmented cash generation are associated with higher firm performance with respect to return on assets. Ownership concentration (Own. Conc.) in Pooled OLS (Panel A) has coefficients in Models 1 to 4 that range from 0.00016 *** to 0.00033 *** and t-statistics from 3.420 to 7.327, while in the fixed effects (Panel B), the coefficients in Models 1 to 4 range from 0.00018 *** to 0.00037 ***, and t-statistics range from 2.020 to 4.408. These results indicate that ownership concentration has a consistent positive correlation with ROA in both Pooled OLS and fixed effects models. DummyChaebol in the Pooled OLS (Panel A) has coefficients in Models 1 to 4 that range from −0.008 *** to 0.006 ***, and the t-statistic ranges from −4.318 to 3.188, while in the fixed effects (Panel B), we observe coefficients in Models 1 to 4 ranging from −0.007 *** to 0.007 *** and t-statistics ranging from −3.262 to 2.960. DummyChaebol exhibits varied relationships with ROA in both models, with changes in significant levels among models. The evidence from DummyChaebol in Pooled OLS (Panel A) coefficients ranging from −0.008 to 0.006 provides some insights. The negative coefficients indicate a probable detrimental influence on ROA for enterprises linked with Chaebol conglomerates. The different coefficients across models suggest that the association between Chaebol affiliation and ROA is model dependent. T-statistics range from −4.318 to 3.188. The continuously high absolute values of t-statistics reflect the statistical importance of the observed correlations. DummyChaebol in fixed effects (Panel B) has coefficients ranging from −0.007 to 0.007. The negative coefficients remain, indicating a probable negative connection with ROA. The association varies between models, as with Pooled OLS. T-statistics range from −3.262 to 2.960. The absolute t-statistics remain rather high, indicating the statistical significance of the observed connections. Asset intensity (Ln) in Pooled OLS (Panel A) has coefficients in Models 1 to 4 ranging from −0.005 *** to −0.004 *** and t-statistics ranging from −7.275 to −5.970. In the fixed effects (Panel B), asset intensity has coefficients in Models 1 to 4 ranging from −0.007 *** to −0.006 ***, and t-statistics ranging from −5.421 to −4.456. In both the Pooled OLS and fixed effects models, asset intensity displays a consistently negative association with ROA. Employee intensity (Ln) in Pooled OLS (Panel A) has a coefficient in Models 1 to 4 ranging from −0.007 *** to −0.006 ***, and a t-statistic ranging from −7.980 to −6.526. In the fixed effects (Panel B), employee intensity has coefficients in Models 1 to 4 ranging from −0.014 *** to −0.014 *** and t-statistics ranging from −8.736 to −8.436. Employee intensity has a consistently negative relationship with ROA in both Pooled OLS and fixed effects models. Size in Pooled OLS (Panel A) has coefficients in Models 1 to 4 ranging from 0.002 to 0.004 *** and t-statistics ranging from 4.120 to 8.592. In the fixed effects (Panel B), the coefficients in Models 1 to 4 range from 0.0005 to 0.001 ***, with t-statistics ranging from 0.646 to 1.761. Size has a positive connection with ROA in both Pooled OLS and fixed effects models, with differing levels of significance. Considering the model fitness variables in Pooled OLS, R-squared explains between 34.8% and 41.4%, whereas in the fixed effects model, it explains between 57.2% and 59.7% of the variation in ROA. R-squared and adjusted R-squared in the fixed effects model often have higher values, indicating superior goodness- of fit. However, the Pooled OLS models have higher F-statistics, indicating better overall model fit. Considering the Prob(F-statistic), all models have extremely significant Prob(F-statistic) values, demonstrating overall model significance (
Stulz 1990;
Jensen and Meckling 1976).
In
Table 6, the result of regression analysis testing the effect of dividend policy on firm performance (return on equity) is presented. In Model 1, dividend policy (Pooled OLS) has a coefficient of 0.0566 *** and a t-statistic = 19.0833, whereas in the fixed effects estimation, the coefficient is 0.0461 *** and the t-statistic = 11.7037.
The evidence in both models shows a positive association between dividend policy and ROE. Pooled OLS suggests a stronger positive effect (larger coefficient and higher t-statistic) compared to fixed effects, indicating that considering firm-specific effects diminishes the observed impact. In Model 2, cash dividend payment in the OLS estimation has a coefficient = 3.1360 *** and a t-statistic = 18.4558, while in the fixed effects estimation, the coefficient = 3.0494 *** and the t-statistic = 13.1793. This result suggests that both models show a positive association between cash dividend payment and ROE. The impact is slightly lower in the fixed effects model, suggesting that firm-specific effects moderate the relationship. In Model 3, dividend yield under d OLS has a coefficient = 1.1459 *** and a t-statistic = 10.7880, whereas in the fixed effect model, the coefficient = 0.9368 *** and the t-statistic = 6.9333. This means that both models indicate a positive association between dividend yield and ROE. The fixed effects model equally shows a lower impact, suggesting that firm-specific factors moderate the relationship. In Model 4, the dividend payout ratio in OLS has a coefficient = 0.0238 *** and a t-statistic = 4.7007, and in the fixed effects, the coefficient = 0.0018 and the t-statistic = 0.3255. Both models suggest a positive association, but the impact is more pronounced in the Pooled OLS model. With the t-statistics exceeding the conventional significance levels, the fixed effects model indicates a weaker relationship after accounting for firm-specific effects. This result reflects
Rozeff’s (
1982) and
Easterbrook’s (
1984) opinion that dividends play a vital role in addressing the agency issue (
Faccio et al. 2001).
In
Table 7, the result of regression analysis testing the effect of dividend policy on firm performance (return on sales) is presented. The result suggests a highly significant positive association of “DIVIDEND POLICY” with return on sales (ROS) in both estimations with coefficients of 0.0651 (t-statistic = 15.1575) and 0.0399 (t-statistic of 7.6866) in Panel A (Pooled OLS) and Panel B (fixed effects) models, respectively. In Model 2, cash dividend payment with coefficients of 4.6423 and t-statistics = 19.1589 and 3.2707 and t-statistics = 10.7604 in OLS and fixed effect estimations, respectively, indicate a highly significant positive association between cash dividend payment and ROS. Firms with higher cash dividend payments tend to have higher ROS. Dividend yield in Model 3 has a coefficient of 1.4876 and a t = 9.7803 and 0.9804 and a t = 5.5454 in the OLS and fixed effect estimations, indicating a significant positive relationship with ROS. Model 4, Panel A and B reveal that the dividend payout ratio has a coefficient of 0.0159 (t = 2.1878) and 0.0159 (t = 2.1878), indicating a significant positive relationship with ROS. The positive effects of all dividend proxies (dividend policy, cash dividend payment, dividend yield, dividend payout ratio) on return on sales (ROS) in both Panel A and Panel B across Models 1 to 4 suggest that, on average, firms that follow dividend policies pay cash dividends and have higher dividend yields, and payout ratios have higher return on sales. Under the OLS estimation, in the second model, DummyChaebol with a negative coefficient (−0.0094) is statistically significant at the 10% level. This suggests a modest negative impact of being a Chaebol firm on Return On Sales. Considering firm specific characteristics, under LSDV estimation, in model 4, DummyChaebol with the positive coefficient of 0.0149 is statistically significant at the 1% level, indicating a notable positive impact of being a Chaebol firm on Return On Sales. All the other control variables and model fitness show consistent effects, like the patterns observed in the case of ROA and ROE. Our empirical evidence and results from our investigations of ROA, ROE, and ROS suggest consistency with signaling theory, which conveys that dividend policies can act as indicators of corporate success and value. The differences in strength and statistical significance levels among the proxies show that different components of dividend policy contribute significantly to firm performance, according to
Bhattacharya (
1979),
John and Williams (
1985), and
Miller and Rock (
1985).
Additionally, cash dividend payment, dividend yield, and the dividend payout ratio exhibit highly significant positive relationships with ROS. Our empirical evidence aligns with signaling theory, suggesting that dividend policies serve as indicators of corporate success and value. These results support our first hypothesis that dividend policy impacts firm performance and value significantly.
Table 8,
Table 9,
Table 10,
Table 11 and
Table 12 concurrently analyze the impact of four dividend policy proxies on firm value and performance indicators for designated Chaebol and non-Chaebol firms under alignment and entrenchment hypotheses. In Panel A of
Table 8, focusing on Chaebol firms and utilizing Tobin’s Q as the firm value proxy, positive coefficients for the dividend policy dummy, cash dividend payment, dividend yield, and the dividend payout ratio are 0.0425, 31.4857, 17.6897, and 0.1873, respectively. These findings indicate a favorable association with Tobin’s Q, supporting the alignment hypothesis, signifying managerial interests aligning with shareholders. Similarly, in Panel A of
Table 9, examining Chaebol firms with market-to-book as the firm value proxy, positive coefficients of 0.0965, 51.8581, 28.6259, and 0.2939 for the dividend policy dummy, cash dividend payment, dividend yield, and the dividend payout ratio, respectively, affirm the interest-alignment hypothesis. In
Table 10, Panel A presents estimates for Chaebol firms using return on assets (ROA) as the firm performance proxy. The positive coefficients of 0.0228, 2.3368, 0.3871, and 0.0393 for the dividend policy dummy, cash dividend payment, dividend yield, and the dividend payout ratio, respectively, indicate alignment of managerial interest with shareholders. In
Table 11, Panel A provides estimates for Chaebol firms using return on equity (ROE) as the firm performance proxy. The observed coefficients are as follows: 0.0414 for the dividend policy dummy, 3.3987 for cash dividend payment, 0.3683 for dividend yield, and 0.0637 for the dividend payout ratio. These positive coefficients collectively support the alignment of managerial interest with shareholders.
Table 12, Panel A also offers estimates for Chaebol firms, focusing on return on sales (ROS) as the firm performance measure. Consistent with patterns observed in ROA and ROE, significant positive coefficients are reported: 0.0437 for the dividend policy dummy, 3.7351 for cash dividend payment, 0.4770 for dividend yield, and 0.0805 for the dividend payout ratio. These findings reinforce the alignment of managerial interests with those of the shareholders. However, in Panel B of
Table 8 for non-Chaebol firms, an unexpected reversal of effects is evident, with negative coefficients (dividend policy dummy: −0.0655, cash dividend payment: −17.8617, dividend yield: −12.0933, dividend payout ratio: −0.0130) associated with Tobin’s Q. This surprising outcome suggests a shift towards the managerial entrenchment hypothesis, indicating a potential non-alignment of managerial interests with shareholders and a consequent decrease in market value. Similarly, in Panel B of
Table 9 for non-Chaebol firms, a reversal is observed with negative coefficients (−0.2896 for dividend policy dummy, −27.6540 for cash dividend payment, −21.5589 for dividend yield, −0.0575 for dividend payout ratio) in relation to market-to-book (MTB) as the firm value proxy. This unexpected reversal aligns with the entrenchment hypothesis, signifying a divergence of managerial and shareholder interests and implying a reduction in market value. These surprise findings in Panel B highlight the multifaceted dynamics of dividend policy effects on firm value among non-Chaebol enterprises, giving critical context for the research findings.
Table 13 provides an integrated analysis of the effect of various dividend policy measures on firm performance and value as captured earlier. Based on
Table 13 above, the significantly positive effects of the four dividend policy proxies on Tobin’s Q and market-to-book ratios in Chaebol firms emphasize the alignment of dividend policies with market valuation. This evidence supports the interest alignment hypothesis, suggesting that these conglomerates strategically use dividends to signal positive firm performance and enhance shareholder value. Conversely, for non-Chaebol firms, the significantly negative effects of the same dividend policy proxies on market performance metrics suggest a divergent dynamic. This supports the entrenchment hypothesis, indicating that these firms may opt to retain earnings for managerial entrenchment, potentially diminishing market value. On the accounting performance front, both Chaebol and non-Chaebol firms exhibit significantly positive effects of the four dividend policy proxies on ROA, ROE, and ROS. This aligns with the interest alignment hypothesis, emphasizing that dividend policies positively impact accounting outcomes in both business types. Non-Chaebol firms show a disparity with negative market performance and have positive accounting results. This suggests challenges in translating positive operational outcomes into improved market valuation. Possible reasons include a focus on managerial retention, investor preference for retained earnings, and industry-specific investor expectations, emphasizing the need to consider context and investor outlook in the non-Chaebol context. The second hypothesis of this study is supported by this result.