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Do executives have fixed effects on firm-level stock price crash risks Preliminary Version (Please Do Not Quote) Jiaxin Liu City University of New York, Baruch College 09/2015 Abstract Past literature suggests that managers’ idiosyncratic characteristics affect a number of firm-level policies, such as financing, investing, organization, financial reporting and tax strategies (e.g. Mason and Hambrick (1984), Bertrand and Schoar (2003), Bamber et al. (2010), etc.). However, there has been limited evidence on how idiosyncratic managerial characteristics manifest into capital market consequences. This paper investigates whether individual CEOs and CFOs have “styles” (i.e. manager’s fixed effects) in corporate bad news withholding which is captured using firm-level future stock price crash risks. Tracking managers that move across firms and employing a manager fixed-effect model, I find that individual CEOs exert an incremental effect on their firm’s future stock price crash risk using multiple crash risk measures. While individual CFOs have a marginal incremental effect on their firm’s future stock crash incidence measure, they are significantly associated with the negative skewness of future returns and the down-to-up return volatility ratio of the firm. In addition, I find that the magnitude of a CFO’s effect on the negative skewness and down-to-up volatility ratio of returns is positively related to a CFO’s managerial ability. Similary, the magnitude of a CEO’s effect on future crash incidence is positively related to a CEO’s managerial ability. Lastly, I find that CEOs who are born before World War II are less prone to crash risks than CEOs born after the war, consistent with prior findings that the former are more conservative in corporate voluntary disclosures (Bamber et al. 2010). 1. Introduction: Studies on firm-specific stock price declines suggest that firm-level bad news withholding behaviors manifest into firm-specific accruals, tax avoidance and biased earnings guidance and are also associated with the likelihood of a future stock price crash (Kim et al.( 2011a, b), Kim and Zhang (2014), Hamm et al. (2014)). These studies, however, do not distinguish between the effects of manager- and firm-specific bad news withholding behaviors on stock price crash risks. This paper explores this issue by examining whether management fixed-effects exist in stock price crash risk. After the collapse of Enron and other high-profile companies in the early 2000s, as well as the recent financial crisis, a stream of research has investigated the cause of extreme price declines (e.g. Jin and Meyers (2006); Hutton et al. (2009); Kim et al. (2011)). Studies highlight the agency problem behind stock price crashes in which managers tend to hide the privately observed bad news from investors due to personal reputation and career concerns. They stockpile this bad news until it reaches a tipping point where they are no longer able to hoard more bad news, and they release it all at once, resulting in a stock price crash. Managers with heterogeneous personal values of honesty, conservatism, risk-taking, and cognitive basis (i.e. knowledge of assumptions, alternatives and consequences of future events) exhibit different degrees of tolerance towards negative news and preferences for the timely 1 release of the bad news. Therefore, it is expected that there exists a management-specific idiosyncratic component in stock price crash risk. Prior studies seem to suggest such a link given the findings of manager fixed-effects in firms’ financial reporting opacity (Ge et al. (2011)), voluntary disclosure quality (Bamber et al. 2010) and tax avoidance (Dyreng et al. (2010)), as well as the evidence that stock price crashes are associated with firm-level financial reporting (Hutton et al. 2009; Hamm et al. 2014) and tax avoidance activities (Kim et al. (2011)). However, detecting a manager fixed-effect in stock crash risk may be difficult for a few reasons. First, the neoclassical theory suggests that managers do not bear idiosyncratic decision-making power that affects organizational strategies because managers’ decisions are motivated and constrained by economic incentives in compensation contracts and by corporate governance mechanisms (Weintraub (2002); Bertrand and Schoar (2003)). Thus, it is possible that managers are passively selected into the firm by the board of directors based on a profile of firm characteristics, e.g. organizational culture and goals. Therefore, the variation in future stock performance may be completely predicted by firm-level characteristics with minimum influence from the manager. To address this concern, I include firm fixed-effects in panel regressions to control for unobservable firm-specific characteristics. Second, there may not be an association between individual manager and firm crash risks if the risk of concealing bad news attached to idiosyncratic managerial characteristics are anticipated and priced into firm valuation by investors before the bad news surprises arrive in the market. In a semi-efficient market, it is not unreasonable to expect that some observable demographic and personal information of managers (e.g. age, gender, educational and working background, religious beliefs, etc.) are factored into the discount rate in stock valuation and into the market’s crash risk assessments. 2 Third, there may not be any incremental, manager-specific effects on firm crash risk if new managers release accumulated bad news in the initial year of their appointment. Pouraciau (1993) suggests that incoming executives tend to record large write-offs and special items that decrease earnings in the year they enter management and to increase earnings in the following year. Meanwhile, the departing executives tend to decrease earnings during their last year of tenure. Yu (2012 working paper) develops a model suggesting that the new CEO is likely to create a “big bath” at his or her initial appointment when the benefits of a lower risk-premium demanded by investors, that is associated with low earnings, outweighs the cost of a reduction in the CEO’s compensation value. Therefore, if the big-bath associated with the departing and the newly appointed managers has exhausted all bad news within the firm, we may not be able to detect an empirical association between individual managers and crash risk in the remaining tenure of the new manager as there is not sufficient bad news that can manifest into stock crashes in subsequent years. Taken together, it remains an empirical question whether individual manager’s idiosyncratic characteristics are associated with future firm-level crash risk. To examine whether managers carry their individual style of withholding bad news and the associated impact on firm-level crash risk from one firm to another, I track managers who worked for multiple firms in the ExecuComp database for the sample period of 1992-2013. I identify 553 CEOs and 513 CFOs that have consecutive employments with at least two firms and investigate for each firm whether the crash risks of the executives’ appointment period is significantly different from the crash risks in the period in which they are absent. The research design aims to delineate managerspecific effects on crash risk from the unobserved, firm-specific confounding factors and other 3 time-varying firm characteristics that are correlated with crash risk. In addition, I include firmspecific fixed-effects in the panel data regression to further address this concern. Following prior studies, I use four crash risk measures (Hutton et al. 2009). The first, the discrete crash risk measure, equals 1 if a firm-specific weekly return falls below 3.09 standard deviations from its mean annual weekly return, and 0 otherwise. This measure captures the likelihood the firm experiences extreme stock return declines in a year. The second is a variation of the first crash risk measure and is calculated as the ratio of the number of crash incidences in a firm-year to the total number of crash incidences of firms in the same industry during the year. This measure aims to capture the relative crash likelihood of a specific firm to its industry peers in a year. The third measure is the negative conditional skewness of firm-specific weekly returns, capturing the downside risks of firms having extreme negative stock returns (Chen, Hong and Stein (2001)). The last measure is the down-to-up return volatility ratio constructed by Chen, Hong and Stein (2001) that is an alternative measure of the negative skewness of stock returns, but is less subject to extreme outlier days. Applying these measures, I find some evidence that individual managers do exert significant influence on firm-level crash risk. For a sample of 648 CEOs 1, I find that individual CEOs are associated with the cross-sectional variation in all crash risk measures. Additionally, for a sample of 513 CFOs, after controlling for the effect of concurrent CEOs, I find that CFOs are associated with the negative skewness of future stock returns and with the down-to-up return volatility ratio. Having established the association between individual manager’s fixed-effects and firm-specific crash risk, I then examine whether some observable managerial characteristics, such as age, 1 Stata drops a number of CFOs and CEOs that switched between firms due to multicollinearity issues in estimating the manager fixed-effects in the OLS regression. Therefore, the sample size of CFOs (and CEOs) who have estimable manager fixed-effects is reduced to 461 (and 449). To be consistent with Stata’s output, I report sample sizes before the omission in the tables in Section 4. 4 gender and managerial ability, can contribute to firm crash risk. The “upper echelon theory” suggests that demographic managerial characteristics are associated with managers’ key formative experiences and managerial knowledge, and are a reflection of managers’ values and cognitive basis that shape their decisions and choices. I estimate the magnitude of fixed-effects of each individual manager on firm crash risks. Following Bamber et al. (2010), I separate managers into pre- and post-World War II age groups and into male/female gender groups to account for the differences in disclosure conservatism associated with each group. In addition, I estimate the portion of managerial ability attributed to each switching manager (e.g. fixed managerial ability) from the ability measure developed by Demerjian (2012). I find that the CFO’s fixed effect on two crash risk measures, negative skewness of future weekly returns and the down-to-up return volatility ratio, are positively associated with the CFO’s fixed managerial ability, but not with the CFO’s age cohort or gender. In addition, I find that the CEO’s fixed-effect on the discrete crash measure is positively associated with the CEO’s fixed managerial ability. Meanwhile, the CEO’s fixed-effect on all crash risk measures is negatively (positively) associated with the CEO’s age-cohort variable, suggesting that CEOs born before WWII are less aggressive in bad news withholding and less prone to firm-specific crash risk. This finding is consistent with the prediction of rent extraction theory that more able (reputable) CEOs are more likely to be subject to the “winner’s curse”, in which they are distracted by social activity and more likely to shirk and to engage in earnings manipulation to meet the market’s expectations (Francis et al. (2008) ; Malmendier and Tate (2009)). In sum, this paper finds managers’ idiosyncratic characteristics (“style”) have an incremental influence on future firm-level crash risk. Combined with the evidence on the association between 5 observable managerial characteristics and crash risk, I capture the systematic differences in managers’ unique bad news withholding and disclosure styles in an indirect way. The study contributes to the literature in several ways. First, to the best of my knowledge, this paper is the first in the crash risk literature to examine the determinants of crash risks from the dimension of people (i.e. corporate managers). Prior research focuses on the impact of firm-level characteristics (e.g. reporting opacity, accounting conservatism, executive’s equity incentives, tax avoidance strategy and management earnings forecasts) on corporate bad news withholding and disclosure and thus on the crash risks in the future (e.g. Kim and Zhang (2015), Kim et al. (2010) a,b, Hutton et al. (2009), Hamm et al. (2014), etc.). This paper investigates the primary underlying causes of firms’ bad news withholding behaviors—the idiosyncratic characteristics of managers that shape their decision choices on the disclosure of bad news—and its consequences on firm-level crash risk. In addition, none of the previous studies have included firm fixedeffects in the crash risk model. My results are robust to the inclusion of firm fixed-effects, solidifying the direct association between managers and crash risk. Second, there have been limited studies examining whether market perceives individual managers differently. Hayes and Schaefer (1997) suggest that the market has a negative reaction towards the departure of managers who are hired by another firm, implying investors do value manager’s ability. Pan, Wang and Weisback (2014 working paper) find that the market views the uncertainty associated with a CEO’s ability as risky, which is reflected in greater stock price volatility. Kim et al. (2014 working paper) find that overconfident CEOs are associated with greater stock price crash risk. In a semi-efficient market, there should not be any systematic differences in stock price crash events across managers if the market is able to distinguish the tendency of individual managers to “not tell the ugly truth” and to price that probability in the 6 stock valuation ex-ante. My study is the first to provide indirect evidence on this issue, and my findings suggest that the market cannot see through the differences in individual managers’ bad news withholding behaviors. Third, the findings of this paper should be of interest to the board of directors during the executive selection process. The selection committee may want to consider manager’s idiosyncratic, personal characteristics which is associated with future stock price crash if they are concerned about the negative impact of stock price crash on firm valuation and public image. The remainder of the paper is divided as follows: Section 2 reviews related literature and develops the hypotheses; Section 3 describes the research methodologies; Section 4 details the data and sample selection; Section 5 presents the results of the empirical tests; and Section 6 concludes the paper. 2. Literature review and hypotheses development: This study draws from two streams of literature: (1) research on managers’ fixed-effects and firm-level policies, and (2) research on managers’ bad news withholding and firm-level stock price crash risks. After reviewing each area in the subsequent sections, I join the two streams of literature to develop and present the hypotheses. 2.1.Managers’ idiosyncratic characteristics (fixed effects): The “upper echelons theory” suggests that organizational outcomes, such as strategic choices and performance levels, are partially predicted by manager characteristics (Hambrick and Mason (1984). The authors propose that organizational strategic choices, in contrast to operational decisions, may reflect decision maker’s idiosyncratic characteristics, arising from “knowledge or 7 assumptions about future events, knowledge of alternatives and consequences attached to each alternative” (pg.195). Following the “upper echelons theory”, several studies report empirical findings of manager’s fixed-effects on firm-level policies (Bertrand and Schoar 2003, Ge et al.2011, Bamber et al. 2010, Dyreng et al.2010). Bertrand and Schoar (2003) find that individual managers have fixed effects on firm-level financial policies (i.e. borrowing, cash holding, dividend payout, etc.), investment policies (i.e. capital expenditure, acquisition, etc.), organizational policies (i.e. R&D, cost-cutting strategy, etc.), and firm performance (i.e. return on assets, etc.). For example, the paper finds that CEOs with MBA degrees take on more aggressive strategies than non-MBA CEOs, such as higher levels of capital expenditures, holding more debt and paying less dividends. Ge et al. (2011) find that individual CFO’s reporting style explains a significant portion of variation in firm’s earnings-related reporting characteristics, such as discretionary accruals, the probability of accounting manipulations and financial reporting conservatism. For example, the study finds that older CFOs are more conservative in earnings reporting than younger CFOs, which is evidenced by lower non-operating accruals and more timely disclosure of bad news. In addition, Bamber et al. (2011) document similar results that the CEO, CFO and general counsel of the firm have idiosyncratic influence on the firm’s voluntary disclosure characteristics, such as frequency, accuracy, precision and errors of management guidance. For example, executives with legal and military backgrounds appear to be more conservative and provide less good news forecasts than their counterparts, while executives with MBA degrees 8 display more aggressive forecasting strategies by providing a greater number of both earnings forecasts and good news forecasts than non-MBA executives. This literature extends to tax reporting as well, where Dyreng et al. (2010) document that top executives have idiosyncratic influence on both the GAAP effective tax rate and cash effective tax rate of firms, suggesting that individual managers do exert incremental, fixed-effects on firm tax avoidance policy. 2.2 Bad news withholding and firm-specific crash risk: Kothari, Shu and Wysocki (2009) show that managers withhold bad news and delay bad news disclosure out of reputational and career concerns. When managers conceal and accumulate bad news until it reaches a tipping point, there is no additional room for absorption, forcing the bad news to be released suddenly to the market which causes an abrupt stock price decline, i.e. stock price crash (Jin and Meyers (2007); Hutton et al. (2009); Kim et al. (2011)). In addition, concealment of bad news also prevents investors and board of directors from discerning negative NPV projects from positive NPV projects on a timely basis. A stock price crash will occur when bad performance of the negative NPV projects accumulates and eventually materializes (Bleck and Liu (2007)). Managers can withhold bad news by manipulating financial statement information. Hutton et al. (2008) find that firm-level financial reporting transparency is negatively associated with firmlevel crash risk. Kim and Zhang (2014) document that higher accounting conservatism deters bad news withholding and is negatively associated with firm crash risk. In addition, managers can camouflage bad news in forecasted earnings, thereby issuing biased management forecast to guide market expectations. Hamm et al. (2014) find that higher 9 management earnings forecast frequency is associated with higher crash risk, suggesting that managers use more frequent management guidance to conceal bad news and manipulate the disclosure of bad news. Moreover, Kim, Li and Zhang (2011) find that tax avoidance activities enable managers to bury bad news in complicated tax-related transactions. The paper suggests that higher tax avoidance is associated with higher future firm crash risk. 2.3. Managers’ idiosyncratic characteristics and firm-level crash risks: Connecting and extending the literature of (1) manager bad news hoarding and firm stock price crash risks and (2) manager fixed-effects on firm-level policies, I investigate whether individual CEOs/CFOs have idiosyncratic effects on corporate bad news withholding behaviors, measured using the firm-level crash risk. It is widely suggested that managers can conceal and embed a great extent of bad news in financial statement information and management guidance through a variety of accounting and tax transactions that obfuscate firm’s financial reporting transparency. Thus, firm-level characteristics, such as discretionary accruals, earnings guidance frequency, effective tax rate and accounting conservatism, are used as indicators of the degree of bad news hoarding, and are associated with future firm-level crash risk (e.g. Kim et la. (2011)a,b; Kim and Zhang (2014); Hutton et al. (2009); Hamm et la. (2014), etc.). However, managerial bad news hoarding behaviors associated with negative operational and strategic events may not be fully captured by these firm characteristics documented in existing literature. For example, managers may choose to withhold and delay the announcement of a manufacturing glitch discovered in the current production period. The production glitch may 10 increase the probability of future product recalls, resulting in lower future earnings. Another example is a cost overrun. Managers may conceal the additional cost, as well as the delayed deadline, from investors in the hope that future costs will drop and progress may recover in the future. Managers may choose to disclose the cost overrun only when the room of absorbing bad news becomes less than minimal. Other examples include the potential departure of a key management member and the failure in negotiating a long-term contract with an incumbent outsourcing partner, distributor or supplier, all of which can adversely affect future firm performance. Managers may not choose financial statement or management guidance as vehicles to hide this bad news, and instead they may simply withhold, accumulate and carry the bad news into the future, leading to possible abrupt stock declines when a cluster of bad news is released in later periods. The “upper echelon theory” suggests that individual managers possess different sets of values and cognitive basis that determine their perceptions and decision-making processes and outcomes. Given the same operational and strategic scenario, each manager can exercise discretion on the time, content and extent of bad news disclosure, resulting in different levels of bad news withholding and disclosure by each individual. It is reasonable to expect that managers associated with different personal values (e.g. honesty, conservatism and risk-taking preference), in conjunction with different cognitive basis (i.e. the knowledge of assumptions, alternatives and consequences of future events, Mason and Hamribrick (1984)), will exemplify varied degrees of bad news tolerance and varied bad news disclosure timeliness, which will manifest into the cross-sectional variation of future firm-level crash risk. For example, it is possible that a manager who values honesty above personal gains and who is more conservative-oriented may choose to disclose bad news on a more timely basis, and thus be less prone to future crash risk 11 than a manager who places a stronger emphasis on personal gain and has a more aggressive disclosure style. Natovich et al. (2011) show that IT project managers with higher psychological capacity 2 are able to disclose bad news on a more prompt basis without excessively considering the wellbeing of themselves than managers with lower psychological capacity. However, it is also possible that there is no association between idiosyncratic managerial characteristics and corporate bad news withholding behaviors (and associated stock price crash risks). Firstly, the neoclassical theory suggests that managers are “identical substitutes” and are homogenous, self-less inputs into the production process (Weintraub 2002). Agency theory focuses on governance monitoring mechanisms, such as independent boards and incentive contracting, on constraining manager’s choice of firm policies, being consistent with Hambrick (2007) argument that managerial influence limited to the decision power one possesses. Betrand and Schoar (2003) also point out the possibility that homogenous managers are passively chosen by boards based on a firm’s strategic needs which manifest into a persistent pattern of firm policies. Therefore, it is possible that the variation in firm-specific stock price crash is purely a manifestation of firm-level determinants, such as a specific strategy pursued by a firm in a particular life-cycle stage or the firm-level governance mechanisms that constrain managerial discretion in rent extraction. In other words, the firm-level characteristics may co-move with management appointment and fully explain the timing and extent of firm’s bad news disclosure. Secondly, stock price crash is a market behavior which cannot be easily predicted in the semistrong form of market efficiency. Since much of manager-specific information (e.g. age, gender, 2 Luthans et al. (2007a) develop four metrics to measure a person’s psychological capacity: self-efficacy, optimism, hope and resilience. 12 educational and working background, religion, etc.) is readily available to the public via the internet, 10-K reports and media interviews, it is highly probable that market has observed such information, factored it into the crash likelihood and discounted the stock price beforehand. If that is the case, there should not be any statistically or economically significant manager fixedeffects on firm-level crash risks. Thirdly, there may not be any incremental, manager-specific effect on firm crash risk if new managers always tend to release accumulated bad news in the initial year of their appointment. Pouraciau (1993) suggests that incoming executives tend to record large write-offs and incomedecreasing special items in the year they enter management and increase earnings in the following year. Meanwhile, the departing executives tend to decrease earnings during their last year of tenure. Yu (2012 working paper) develops a model suggesting that the new CEO is likely to create a “big bath” at his or her initial appointment when benefits of a lower risk-premium demanded by investors outweigh the cost of the CEO’s compensation value reduction. If the big-bath associated with the departing and the newly appointed manager has consumed the majority of bad news in the firm, we may not detect an association between the moving manager and crash risks in firm-years subsequent to her/his appointment because there is insufficient remaining bad news to generate crash incidences following the initial big-bath. Therefore, it remains an empirical question whether individual managers have “style” in bad news withholding, illustrated in their idiosyncratic influence on firm-level crash risks. I examine the association between the individual chief executive officer (CEO) (and chief financial officer (CFO)) and firm-level crash risks with the following hypotheses: H10: There is no association between individual CFOs and firm-level crash risk in the future. 13 H1a: There is an association between individual CFOs and firm-level crash risk in the future. H20: There is no association between individual CEOs and firm-level crash risk in the future. H2a: There is an association between individual CEOs and firm-level crash risk in the future. 3. Research Methodology and Sample: 3.1. Research model and sample for managers’ fixed-effects on crash risks: Following prior research (Bertrand and Schoar (2003); Bamber et al. (2011); Ge et al. (2010)), I use a manager fixed-effect model to analyze CEO/CFO’s idiosyncratic effect on firm future crash risk. I tracked down CEOs/CFOs who worked for at least two firms, denoting them as “Switching CFO” (“Switching CEO”). To disentangle firm-level characteristics and other timevarying factors that may be correlated with the presence of individual switching managers and with firm crash risks, I match the switching managers to the matching managers, i.e. managers who worked in the same firm before and after the switching managers (Diagram 1). For example, in Diagram 1, a switching manager worked for firm A in period 2 and move to firm B in period 3. The switching manager is the manager of interest. I track her/him from firm A to firm B. Matching Manager A1(B1) and A2(B2) are used as the control group of managers since these managers are subject to the same unobserved, firm-specific characteristics as the switching managers in each firm. Firm A Firm B Period1 Matching Manager A1 Diagram 1 Period2 Period3 Switcher Matching Manager B1 14 Period 4 Matching ManagerA2 Switcher Matching Manager B2 I start with the CEOs and CFOs listed in the ExecuComp database in the period from 1992to 2013 3. The initial sample consists of 6,754 CFOs and 6,898 CEOs. I tracked CFOs/CEOs who worked for least two firms (i.e. switching CFOs/CEOs), and find there are 576 switching CFOs and 759 switching CEOs. I then merge the data with the CRSP database and as a result only 561 switching CFOs and 687 switching CEOs remain due to missing returns observations in calculating crash risk measures. I further merge the data with Compustat which results in 513 switching CFOs and 648 switching CEOs remaining due [INSERT TABLE 1 HERE] to missing financial data in calculating the control variables. The estimation sample is reduced to 12,439 firm-year observations (7,103 in the CFO sample and 5,536 in the CEO sample) including matching firm-years of non-switching managers. However, Stata drops a number of switching CFOs/CEOs in the process of estimating managers’ fixed-effects due to multicollinearity. Therefore, the tests on managers’ fixed-effects are estimated for 461 switching CFOs and 449 switching CEOs 4. To estimate managers’ fixed-effects on firm-level crash risks, I employ Model (3-1) and Model (3-2) as follows. I include an indicator variable for each switching manager, firm and year in the model. Prior studies document that CFOs may succumb to the CEO’s pressure to manipulate earnings (Feng et al.(2010)). Thus, it is possible that the CFO’s style of bad news withholding is a manifestation of the CEO’s decision style. Therefore, for the CFO’s fixed effect sample, I 3 I identify CEOs and CFOs using the annual title and executive title variables in ExecuComp. I include any CFO/CEO that has a “CFO” or “CEO” annual title in the field of “ceoann” or “cfoann”, or that has the words “Chief Financial Officer”, “Chief Executive Officer”, “Comptroller”, “Treasurer”, or “Vice President of Finance” in the field of “anntitle”. 4 To be consistent with Stata, I report the sample before the omissions (i.e. 513 CFOs and 648 CEOs with 12,439 firm-year observations) in the resulting tables. 15 include an indicator variable for the concurrent CEO to delineate the CFO’s effect from the CEO’s effect. CFO Sample: Crash Risksj,t+ 1= α + β1 Controls jt + β2 Firm fixed-effectjt + β3 Year fixed-effectjt + ɛ jt ; Model (2-1), Crash Risksj,t+1 = α + β1 CFO Switching CFO Dummiesjt+ β2 Controlsjt + β3 Firm fixed- effectjt+ β4 Year fixed-effectjt + β5 ConcurrentCEOjt + ɛ jt; Model (3-1), CEO Sample: Crash Risksj,t+1 = α + β1 Controls jt + β2 Firm fixed-effect jt + β3 Year fixed-effect jt + ɛ jt; Model (2-2), Crash Risksj,t+1 = α + β1 CEO Switching CEO Dummiesjt + β2 Controlsjt + β3 Firm fixed-effectjt + β4 Year fixed-effectjt + ɛjt; Model (3-2), The null hypothesis is that there is no fixed-effect of individual switching CEOs/CFOs on firm future crash risks. Thus, the F-test for whether the coefficients of individual switching CEOs/CFOs are jointly zero (i.e. Not all β1 CFO s = 0; and not all β1 CEO s = 0) is performed. If the F-statistic values are significant at <0.1 level, i.e. the coefficient of at least one switching manager is not zero, I can reject the null hypothesis, suggesting that individual switching CEOs/CFOs in my sample do exert idiosyncratic effects on the one-year ahead firm-level crash risk. Model (2-1) and Model (3-1) are the restricted models from past crash risk studies, controlling for firm and year fixed-effects. The adjusted R2 of these models will be compared against the full models to identify the incremental effects of switching managers on existing crash risk determinants. 16 Crash Risksj,t+ 1 are the four crash risk measures which capture the probability the firm experiences extreme stock price declines in the future, as adopted from prior studies (Hutton et al. (2009), Kim et al. (2011), Hamm et al. (2014)). Crash1j,t+1 is coded 1 if in a given fiscal firmyear, the firm experiences one or more firm-specific weekly returns 5 that decrease 3.09 or more standard deviations below the annual mean firm-specific weekly return (Wjt) measured over the entire fiscal-year, and 0 otherwise. In addition, I create a variation of Crash1j,t+1 , Crash%j,t+1, which is the ratio of the number of firm-specific crash incidences (defined by Crash1j,t+1) per year to the total number of crash incidences of all firms in the same year and industry. This measure aims to capture the crash likelihood of a firm relative to its industry peers 6. Crash2j,t+1, is the negative conditional skewness of firm-specific weekly returns developed by Chen, Hong and Stein (2001), and it is calculated for a firm-year by taking the negative of the third moment of firm-specific weekly returns of the sample firm-year and dividing it by the standard deviation of firm-specific weekly returns over the year raised to the third power, as shown in the following equation: Crash2j,t+1=-[n(n-1)3/2ƩW3 j,t+1]/[(n-1)(n-2)( ƩW2jt+1)3/2] 5 .All crash risk measures are constructed using the firm-specific weekly returns calculated from the expanded market model – Model (1). rjt= α +β1jrm t-1+β2j rmt+ β3j rmt+1 + β4j rit-1+ β5j rit + β6j rit +1+ ɛjt Model (1) rj,t is the CRSP return on firm j in week t , and rm,t is the industry-weighted market index in week t. I include the lead and lag terms for market returns to allow for nonsynchronous trading (Dimson 1979). I am interested in the residual ɛjt from the market model, which is the firm-specific portion of weekly stock returns. The firm-specific weekly return, denoted by Wjt, is calculated as the natural log of one plus the residual return from the above model, i.e. Wjt=ln(1+ ɛ). 6 I construct this measure based on Crash1j,t+1 to address the non-convergence issue of the logistic regression in model (3-1) and model (3-2) with respect to Crash1j,t+1. Due to the inability of the Stata program to converge in the logistic regression, I use an OLS regression to approximate the test results of manager’s fixed-effect on Crash1j,t+1. However, I recognize that the discrete dependent variable is not normally distributed and thus, coefficient estimation is biased. The alternative measure, Crash%j,t+1, is a continuous measure of the value between 0 and 1, which is a better specified dependent variable in the OLS regression, theoretically producing less biased but qualitatively comparable results to Crash1j,t+1. 17 Crash3j,t+1 is defined as log of the ratio of the standard deviation of firm-specific weekly returns that are above the annual mean returns to the standard deviation of returns that are below the annual mean returns, capturing the relative volatility of firm-specific weekly returns of the “down weeks” to the “up weeks”. Crash3j,t+1= Log( σdown j,t+1 / σup j,t+1) All crash risk measures are one-year ahead measures (i.e. year t+1) since it takes time for the bad news to accumulate in the current period and to be released in the next period when the tipping point is reached. I aim to capture the bad news withholding behaviors of managers rather than the “whistle blowing” behaviors. I also include a set of control variables following Chen et al. (2001), Hutton et al. (2009) and Kim et al. (2011). DTURN is the detrended stock trading volume, which is a proxy for investor heterogeneity, or the difference of opinions among investors. Firms with high stock turnovers are more likely to have stock price crashes in the future. The NCSKEW is the negative skewness of firmspecific stock returns in the prior year, capturing the potential persistence of the third moment of stock returns. sdW is the standard deviation of past firm-specific stock returns, controlling for the fact that more volatile stock is more prone to crash in the future. w is the average firm-specific weekly return over the past year, with higher past returns associated with a greater probability of crashing in the future (Chen et al. (2011)). I include the standard control variables for firm size (SIZE), market-to-book ratio (MB), financial leverage (LEV), and return on assets (ROA) (Hutton et al. 2009). In addition, DISACC is the modified Jones’ discretionary accruals, controlling for the financial reporting opacity of the firm. Hutton et al. (2009) find that firms can conceal bad news in manipulated earnings and financial reporting opacity is positively associated with stock crash risks in the future. 3.2. Observable manager characteristics and managers’ impact on crash risks: 18 Following prior studies, I examine whether observable manager characteristics, such as managerial ability (Demerjian (2012)), age cohort 7 and gender (Bamber et al. (2011), Ge et al. (2011)) are associated with the magnitude of manager’s fixed-effects on firm’s future crash risk. The OLS model is as follows, with all variables winsorized at 1% and 99%: λmt = α+γ1 MA_Coeffmt + γ2Age_Cohortmt + γ3 Gendermt + ɛmt. Model (4) λmt are the coefficients from models (3-1) and (3-2), representing individual CFO’s/CEO’s fixed/incremental effects on firm crash risk. MA_Coeffmt is manager’s fixed-effect on Demerjian’s managerial ability score (i.e. fixed managerial ability), estimated using the OLS regression in Model (5). MA_scorejt (Demerjian et al. (2012) ability measure) = α+β1SwitcherDummiesjt+ β2Firms jt+ β3Yearsj,t+ β4 ConcurrentCEO/CFOjt + ɛjt Model (5) In Model (5), I regress the overall managerial ability (MA_scorejt) from Demerjian et al. (2012) 8 on the switching manager dummies (SwitcherDummiesjt) to obtain MA_Coeffmt (i.e. a manager’s fixed-effect on overall managerial ability). Footnote 5 illustrates the estimation of the overall, general managerial ability measure, MA_scorejt developed by Demerjian et al.(2012) and shows that it may contain unobserved firm-level noise. MA_Coeffmt is the β1 estimated for each switching manager in Model (5), purging off firm noise and better capturing the manager- 7 Age corhort is an indicator variable that equals 1 if a manager is born before 1945 (i.e. pre-World War II), and 0 if a manager is born after 1945 (i.e. post-World War II), following Zemke et al. (2000) and Bamber et al. (2010). 8 Demerjian et al. (2012) develop a measure for managerial ability by regressing firm efficiency on firm size, market share, free cash flow, firm age and business segment concentration using aTobit regression. Firm Efficiencyit = α + β1ln(Total Assets) it + β2Market Share it + β3 Free Cash Flow Indicatorit + β4ln(Age) it + β5 Business Segment Concentration it + Year Dummies it + Industry Dummies it + ɛit. The residual is deemed to capture firm operating efficiency that cannot be explained by firm-level variables, and is considered to measure managerial ability. This measure can be obtained from Demerjian’s website directly: https://community.bus.emory.edu/personal/PDEMERJ/Pages/Download-Data.aspx 19 specific contribution to general managerial ability. Age_Cohortmt is defined 1 if a manager is born before 1945 (World War II), and 0 otherwise. Gendermt is 1 if the manager is male and 0 if the manager is female. 4. Results: 4.1 Main results: Table 2 summarizes the descriptive statistics of the crash risk measures and control variables. The mean Crash1t+1 is 29.4% 9, which is relatively higher than the 10-20% range reported by previous studies, suggesting that on average 29.4% of firm-years in the sample period of 19922013 experience one or more firm-specific weekly returns that fall 3.09 standard deviations below (above) their annual mean stock return. The mean weekly stock return of sample firms is 0.31%. [INSERT TABLE 2 HERE] Table 3 shows the pairwise Pearson Correlation matrix of the dependent and independent variables. It shows that that the four crash risk measures (Crash1jt+1, Crash1%jt+1, Crash2jt+2 and Crash3jt+3) are highly correlated with each other at 0.01 level. [INSERT TABLE 3 HERE] Table 4 tabulates the result from Models (2) and Models (3) – the models of CFO’s and CEO’s fixed-effects on future crash risk. For the CFO sample, after controlling for the concurrent CEO 9 The mean Crash1 t+1 reported here is relatively higher than the 10-20% range reported by previous studies (Kim et al. 2011, Hutton et al. 2009, Kim and Zhang 2013, Hamm et al 2014). My sample average Crash1 t+1 is closest to Hamm et al. (2014)’s sample average of 19.75%. Ham et al. (2014) cover a sample period of 1996-2009, which partially includes the most recent financial crisis. One explanation of my higher Crash1 measure is that my sample is from 1992-2013, a more comprehensive coverage of the entire financial crisis period, including both the head and tail. Thus, it would not be surprising to see a greater percentage of crash incidence in my sample than Hamm et al (2014)’s. 20 and firm and year fixed-effects, the F-statistic has a p-value of 0.06 (<0.1) for the Crash1jt+1 measure, suggesting that individual CFOs do exhibit idiosyncratic style in bad news withholding that affects firm-level crash risks. However, for the alternative measure, Crash%jt+1, the Fstatistic is not significant at <0.1 level. It appears that the association between individual CFOs and future crash incidences of the firm is weak. Nonetheless, the F-statistic is 1.22 for Crash2jt+1 and is significant at the level of 0.0017. In addition, for the Crash3jt+1 measure, the F-statistic is 1.26 and is significant at the level of <0.001. The results suggest that individual CFOs have incremental influence on the negative sknewness of future returns and on the down-to-up volatility ratio of future returns. [INSERT TABLE 4a HERE] I also examine the relative change in the adjusted R2s 10 between the restricted and the full models. It is of note that controlling for firm fixed-effects in the crash risk model reduces the adjusted R2 to negative. Past literature on crash risks does not include controls for firm fixedeffects (e.g. Hutton et al. 2008, Hamm et al .2014; Kim and Zhang 2014, Kim et al. 2011, etc.). The adjusted R2 s are between 3%-8% in those models. Untabulated results show that, without controlling for the firm fixed-effect, I achieve the adjusted R2 in a similar range (3%-5%) in my paper, which is comparable to prior studies. To control for the time-invariant, firm-specific characteristics that may be correlated with firm crash risk, I include firm and time fixed-effects in the model. For the CEO sample, I find that individual CEOs are associated with all of the crash risk measures. In Table 4b, the F-statistic for Crash1jt+1 is 1.22 and is significant at the 0.0086 level. 10 Adjusted R2 is calculated from the within R-squared of the firm fixed-effect regression (Stata: xtreg, fe command). 21 The F-statistic for the alternative measure, Crash%jt+1, is 1.26 and significant at the 0.0000 level. The adjusted-R2 of the full model has increased by 17.43% ((-8.39%-(-10.16%))/10.16% = 17.43%) relative to the restricted model of Crash1jt+1, suggesting that individual CEO’s idiosyncratic characteristics exert influence on the probability of a firm’s future stock price crash. The adjusted-R2 of Crash%jt+1 in the full model increases from -13.59% to -8.64%, a relative increase of 36.42% from the restricted model. For Crash2jt+1, the negative stock return skewness of future’s firm returns, the F-statistic is 1.17 and is significant at the 0.0102 level, with an adjusted R2 that increases from -5.52% to -3.87%, a relative increase of 29.84% from the restricted model. For Crash3jt+1, the down-to-up volatility ratio of future stock returns, the Fstatistic is 1.22 and is significant at the <0.01 level. The adjusted R2 in the restricted model is 9.06% and has increased to -6.90% in the full model, a relative increase of 23.85%. In sum, I find evidence that individual CEOs have an idiosyncratic style in bad news hoarding that influences future firm-level crash risk. [INSERT TABLE 4b HERE] 4.2 Additional results on manager demographic characteristics and manager’s fixed-effect on crash risk: Table 5a and 5b present the results of model (4), which examines the association between manager’s effect on firm future crash risk and manager’s personal and demographic characteristics. [INSERT TABLE 5a HERE] Table 5a presents the results for the CFO sample. Panel A shows the distribution of CFOs’ fixed effect on the crash risk measures and the value of the general managerial ability of the firm in the 22 CFO sample (e.g. MA_score from Demerjian et al.2012). Approximately 3-12% of the sample of CFOs has a fixed effect, at the 0.1 level, on the crash risk measures. The mean fixed effect of an individual CFO on Crash1jt+1 (Crash%jt+1, Crash2 jt+1, Crash3 jt+1) is -0.005 (-0.001, 0.123 and 0.047, respectively). The mean fixed effect of an individual manager on the general managerial ability is -0.008, while the median fixed effect is -0.005. About 20% of CFO sample has a fixed managerial ability significant at the <0.1 level. Panel B provides evidences that on average, an individual CFO does have a fixed managerial ability that she brings with her from firm to firm given that the Fischer’s F-statistic is significant at the <0.000 level. Panel C shows the descriptive statistics of CFOs’ personal and demographic characteristics. The mean MA_score is 0.012 for the sample of CFOs, and 51.7% (48.3%) of CFOs have positive (negative) managerial ability, suggesting they contribute to firm operations in a positive (negative) way. About 6.99% of the sample of CFOs are born before World War II, and are considered to be more conservative in their disclosure styles (Bamber et al. 2010) while 91.13% of CFOs are male and are considered to be more aggressive than female CFOs. Panel D presents the results of Model 5 for the CFO sample. After controlling for age and gender, Crash2jt+1 and Crash3jt+1 are associated with CFO-fixed managerial ability. The coefficients on Crash2jt+1 and Crash3jt+1 are negative, consistent with the explanation that more able managers are associated with greater reputational risk 11 and are more likely to engage in bad news withholding to meet the market’s expectations. However, I do not find any association between managerial ability and the dichotomous crash measures Crash1jt+1 and Crash%jt+1. 11 Rent extraction theory predicts that reputable CEOs are more likely to manipulate earnings to “pretense and maintain” the good performance of firms since in the past they were awarded for actual good performance based on their high ability (Francis et al. 2008). In addition, Malmendier and Tate (2008) find that media covered “superstar” CEOs underperform after such recognition by correspondingly increasing the level of earnings management. They argue these CEOs spend more time on public figure events and as a result have to manipulate earnings to meet the market’s expectation, which is based on prior “star” performance. 23 Table 5b presents the results for the CEO sample. Panel A shows the distribution of CEOs’ fixed-effects on the crash risk measures and the value of the general managerial ability of the firm in the CEO sample. Approximately 3-13% of the sample of CEOs has a fixed effect, at the 0.1 level, on the crash risk measures. The mean fixed effect of individual CEOs on Crash1jt+1 (Crash%jt+1, Crash2 jt+1, Crash3 jt+1) is -0.010 (-0.001, 0.035, 0.025, respectively). Panel B demonstrates that an individual CEO does have fixed managerial ability that she brings with her from firm to firm (the F-statistic is significant at the <0.001 level). The mean fixed-effect of an individual CEO on the general managerial ability is -0.072, while the median fixed effect is 0.000. About 18.28% of sample CFOs have fixed managerial ability significant at the <0.1 level. Panel B shows that CEOs do have individual-specific managerial ability, suggested by the Fstatistic that is significant at the <0.000 level. Panel C shows the descriptive statistics of CEOs’ personal and demographic characteristics. The mean CEO MA_score is -0.0003 with 46.25% (53.75%) of CEOs having positive (negative) managerial ability, suggesting they contribute to firm operations in a positive (negative) way. About 30.28% of sample CEOs are born before World War II and 97.78% are male. Panel D presents the results of Model 5 for the CEO sample. After controlling for age and gender, Crash1jt+1 and Crash% jt+1 are associated with the CEO’s fixed managerial ability. However, I do not find any evidence on the association between the CEO’s managerial ability and the other two crash risk measures. Interestingly, Age_Cohort is negatively associated with all of thecrash risk measures, consistent with the notion that CEOs born before WWII are more conservative and tend to disclose bad news on time and accumulate and delay good news release (Bamber et al. 2010). 24 [INSERT TABLE 5b HERE] In sum, I find some evidence that top executives’ managerial ability is associated with future firm-specific crash risks. Specifically, the CFO’s ability is associated with the negative skewness of stock returns and the down-to-up return volatility ratio of the firm. However, the CEO’s ability, but not the CFO’s ability, is associated with the discrete crash risk measures and its variation form (Crash1jt+1 and Crash% jt+1 ). In addition, the Age_Cohort is negatively associated with the CEO’s fixed effect on crash measures, corroborating the finding of Bamber et al. (2010) that managers born before WWII have more conservative voluntary disclosure styles. 5. Sensitivity test – replication of Bamber et al. (2010): I replicate Table 2 “Testing Individual Top Managers’ Fixed Effects on the Number of Management Earnings Forecasts” of Bamber et al. (2010) using my switching CEO/CFO sample. The replication has two purposes: (1) ensuring the identification of switching managers and the relevant sample selection procedures are correct; and (2) ensuring that my Stata coding and regression techniques are consistent with Bamber et al.’s model. Following Bamber et al. (2010), I use the regression model (6-2) shown below, substituting the dependent variable by using the number of earnings forecasts a firm issues per year and using standard control variables from the management guidance literature. All variable definitions are in Appendix A. NumFj, t+1= α + β1 Controls jt + β2 Firm fixed-effect + β3 Year fixed-effect + ɛ jt Model (6-1) NumFj, t+1= α + β1 SwitchingCFO/CEO_Dummiesjt+ β2 Controls jt + β3 Firm fixed-effect + β4 Year fixed-effect + ɛjt Model (6-2) 25 Bamber et al. used a sample period of 1995-2005 while my sample period is 1992-2013, resulting in a larger sample size compared to their study. Management earnings forecasts are obtained from the Company Issued Guidance database (CIG). Control variables are constructed from observations in IBES and Compustat. Results are presented in Appendix B. Table B1 presents the sample selection process. The sample consists of 413 switching CFOs (3,891 firmyear observations) and 411 switching CEOs (3,384 firm-year observations). [INSERT TABLE B1 HERE] Table B2 is the descriptive statistics of the main and control variables. On average, the sample firms issue 4.971 management forecasts in a sample-year, which is relatively larger than Bamber et al.’s sample average of 1.77. I further looked at annual forecasts and quarterly forecasts separately, and the average number of annual forecasts is 2.815 and quarterly forecasts 2.156, which is closer to Bamber et al.’s sample average. The mean, median and standard deviation of other variables are comparable to Bamber et al.’s sample. [INSERT TABLE B2 HERE] Table B3 presents the results of managers’ fixed-effects on management earnings forecast frequency. In general, I find that there is an association between individual CFOs (CEOs) and firm-specific management earnings forecast frequency. Table 3a shows that CEOs and CFOs have an incremental, fixed-effect on the frequency of annual earnings forecast with an F-statistic of 1.62 (1.96) that is significant at the <0.000 level for the sample CFOs (CEOs). Table B3b and Table B3c show similar results for the frequency of annual and quarterly management forecasts. [INSERT TABLE B3 HERE] 26 Table B4 is the original table in Bamber et al. (2010), the results of which are comparable to my results 12. [INSERT TABLE B4 HERE] 6. Conclusion: Past theory and evidence suggests that individual managers bring idiosyncratic managerial styles to the firms in which they work and such styles affect firm-level policies on multiple levels (e.g. Hambrick and Mason 1984; Bertrand and Schoar 2003, Bamber et al. 2010 and Ge et al. 2011). I investigate whether managers’ idiosyncratic characteristics exert influence on firm-level bad news withholding decisions, reflected in the future stock price crash risks of the firm. Following prior literature and using the ExecuComp database, I track managers who switched firms in a sample period ranging from 1992 to 2013 and examine whether these managers’ idiosyncratic styles affect firm stock price crash risks. Following Hutton et al. (2009) and related studies, I use the discrete stock price crash risk measure, the negative skewness of future returns and the down-to-up returns volatility ratio to capture firm’s stock price crash likelihood. For the sample of 461 switching CFOs and 449 switching CEOs whose fixed effects are estimable, I find some evidence that individual CFOs and CEOs are associated with the future stock price crash risks of their firms. I find that CFOs exert an incremental effect on the three crash risk measures after controlling for the concurrent CEO and year and firm fixed-effects, 12 Note that in Table B4, the F-statistic in Bamber et al.’s paper is larger in value than the F-statistic in my paper, and this is because my sample includes a greater number of manager dummies and thus, greater degrees of freedom. An F-statistic of Fischer’s F-distribution with larger degrees of freedom (both the denominator and numerator d.o.f.) that falls in the critical region is usually smaller in value than an F-statistic of distributions with smaller degrees of freedom. In sum, the replication findings I undertake are qualitatively consistent with Bamber et al. (2010)’s Table 2. 27 while the results for the discrete crash risk measure are marginally significant. Meanwhile, I find that CEOs are significantly associated with all three crash risks measures after controlling for firm and year fixed-effects. Building on prior studies on manager personal and demographic characteristics and their impact on firm-level policies (Baik et al. 2010, Demerjian et al. 2012, Get et al. 2011, Bamber et al. 2010), I examine whether managerial ability, age and gender are associated with the magnitude of manager’s fixed effects on crash risks. Specifically, I estimate manager’s fixed effects on managerial ability (Demerjian et al. 2012) to separate any firm-level confounding factors from manager-specific efficiency, and examine whether the magnitude of manager fixed-effects on crash risk is associated with their managerial ability, age and gender. The findings show that CFOs’ fixed managerial ability is positively associated with their idiosyncratic impact on the negative skewness and down-to-up volatility ratio of firms’ future stock returns. Similarly, CEOs’ fixed managerial ability is associated with firms’ future crash incidence (on a marginal basis). This is consistent with the notion that more able managers tend to be overconfident about future outcomes and withhold more bad news (Baik et al. 2010, Hamm et al. 2014, Kim and Zhang WP 2013). One explanation is that the market underestimates the likelihood of “superstar CEOs” shirking, manipulating earnings (Tate and Malmendier 2009) and concealing bad news. Lastly, I find that CEOs born before WWII are more conservative (Bember et al 2010), and thus, are less prone to crash risk than CEOs born after WWII. This paper, to the best of my knowledge, is the first to examine individual managers and the effect of their idiosyncratic managerial style on firm’s future extreme stock price declines. 28 While prior studies show that firm-level accounting and tax characteristics are predictors of future stock crash incidence (Hutton et al. 2009, Kim et al. 2011ab, Hamm et al.2014), I direct the investigation towards managers, the ultimate decision-makers of firm-level policies, and examine if there is a direct association between individual managers (CFOs/CEOs) and bad news withholding behaviors, reflected in firm stock price crash risk. My study also controls for firm fixed-effects in the crash risk model. 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Journal of Accounting and Economics 53, 167-184. 34 Table 1 Sample Selection Sample Selection Steps ExComp Switching Managers Data available for crash risk measures calculation on CRSP CFO 6,754 576 CEO 6,898 759 Total Observations (including matching managers) 44,118 20,728 561 687 17,023 Data available for control variables calculation on Compustat 513 461 648 449 12,639 11,177 Managers whose fixed effects are estimable This table presents the sample selection procedures in constructing the sample for manager's fixed effect model: 1. CFO are identified by (1) extracting keywords from the "anntitle" field, including excerpts of "Chief Financial Officer, chief finance officer, VP in Finance, vice president in finance, vp-finance, treasurer, comptroller", (2) using "cfoann" field indicator; CEO are identified by (1) extracting keywords from the "anntitle" field, including excerpts of CEO, Chief Executive Officer, (2) 2. Identified switching managers/CFO/CEO are managers that worked for at least two firms in the sample period. 3. There are 513 switching CFOs and 648 switching CEOs identified using my method. However, Stata drops a number of observations/manager-years in the regression process due to multicollinearity issues. So only 461 CFOs and 449 CEO of whose fixed effects are estimable. Firm-years attached to the 461 CFOs is 6,308 and to the 449 CEOs is 4,869. Stata reports the estimation sample sizes as before the omission of the multicollinear managers. To be consistent with Stata, I report in tables the sample size before the omission: CFO test is 7,103 and CEO test is 5,536 35 Table2 Variable Crash1 t+1 Crash%t+1 Crash2 t+1 Crash3 t+1 DTURNt NSKEWt sdWt wt Size t MB t LEVt DISACCt ROAt+1 Descriptive Statistics (CEO and CFO sample combined) Obs Mean Std. Dev. 5% 50% 95% 12,639 0.294 0.456 0.000 0.000 1.000 12,639 0.011 0.047 0.000 0.000 0.053 12,638 0.036 1.495 -1.276 0.194 3.288 12,635 0.133 0.512 -0.512 0.079 1.040 12,639 0.056 0.880 -1.326 0.038 1.487 12,639 0.469 1.531 -1.262 0.207 3.578 12,639 0.063 0.036 0.024 0.054 0.134 12,639 -0.048 0.056 -0.149 -0.031 -0.001 12,639 7.551 1.535 5.076 7.489 10.178 12,639 3.027 4.161 0.578 2.190 9.241 12,639 0.193 0.168 0.000 0.172 0.507 12,639 -0.007 0.121 -0.163 -0.004 0.144 12,639 0.043 0.104 -0.135 0.047 0.194 This table presents the descriptive statistics of crash risk measures and control variables in manager's fixed effect model. This sample is the combination of CEO and CFO manager firm-years in the sample period of 1992-2013. 1. All continuous variables are winsorized at 1% level both sides. 2. This table presents descriptive statistics for dependent and independnet variables for the combined CEO and CFO sample (12,639), with 7,103 from CFO sample and 5,336 from CEO sample 36 a b c d e f g h i j k l m a Crash1 t+1 Crash1 t+1 1 Crash%t+1 0.3366* Crash2 t+1 0.6375* Crash3 t+1 0.6282* DTURN t 0.0251* NSKEW t 0.0059 sdW t 0.0032 wt 0.0024 Size t -0.0149 MB t 0.0272* LEV t -0.0349* DISACC t 0.0212* ROA t+1 0.0332* Table 3 Pearson Pairwise Correlation Matrix b c d e f g h Crash%t+1 Crash2 t+1 Crash3 t+1 DTURN t NSKEW t sdW t wt 1 0.2326* 0.2295* 0.0006 -0.0039 -0.0384* 0.0284 0.0413* 0.0389* 0.0151 0.0275 0.0269 1 0.9437* 0.0204 -0.0246* -0.0476* 0.0340* 0.0234* 0.0138 -0.0621* 0.0273* 0.0584* 1 0.0118 -0.0349* -0.0532* 0.0378* 0.0611* 0.0119 -0.0484* 0.0346* 0.0662* 1 0.0230* 0.1682* -0.0913* 0.0157 -0.0087 0.0229* 0.0148 0.0046 1 0.2172* -0.1979* 0.0293* -0.0088 -0.0365* -0.0295* 0.0068 1 -0.5061* -0.1817* 0.0098 -0.0168 -0.0951* -0.1000* 1 0.0851* -0.0081 0.0128 0.0821* 0.0850* i Size t j MB t k LEV t l m DISACC t ROA t+1 1 -0.0044 1 0.1445* 0.0182 1 0.0597* -0.0071 0.0206* 1 0.0516* -0.0011 -0.0293* 0.3473* 1 This table presents the pariwise Pearson Correlatin matrix for variables included in our main test for the sample period of 1992-2013. All variables are defined in Table2 and Appendix A. Bold face and asterisks indicates significance level <=0.01. 37 Table 4a Testing CFO fixed effect on future crash risk, controlling firm CEO fixed effect Economic Economic Economic determinants Economic determinants and CFO and CFO determinants determinants fixed effect fixed effect only only (model 3-1) (model 3-1) (model 2-1) (model 2-1) CFO=513 Crash1 jt+1 N=7,103 N=7,103 Testing Economic Determinatns = 0 F-statistics 1.76 * 2.53*** p value 0.0790 0.0095 Constraints F( 8, 6277) F( 8, 4941) Crash% jt+1 N=7,103 Testing Economic Determinatns = 0 F-statistics 1.89 2.3500 p value 0.0570 0.0161 Constraints F( 8, 6277) F( 8, 4941) Testing Manager Fixed Effect = 0 F-statistics 1.11* p value 0.0607 Constraints F(461, 4941) Testing Manager Fixed Effect = 0 F-statistics 0.71 1.0000 p value Constraints F(461, 4941) Year fixed effect Firm fixed Effect Year fixed effect Firm fixed Effect Adjusted R2 CFO=513 N=7,103 yes yes yes yes -7.79% -4.35% Adjusted R2 3.44% Improvement in R2 relative to restricted model In Raw Percentage Improvement in R2 relative to restricted model In Raw Percentage 2 As a % of restricted model R yes yes yes yes -12.25% -17.02% -4.77% 2 44.16% As a % of restricted model R -38.93% 1.This table presents the results from model (2-1) and (3-1). I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CFO dummies are jointly zero for hypothesis 1. A p-value of the f-test smaller than 0.1 suggests that the CFO dummies are not jointly zero, i.e. individual CFO having idiosyncratic effect on firm's crash risk in the future. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests. Stata is not able to converge for the sample under the "xtlogit, fe" regression, so I use this alternative to approximate the coefficient. However, I am aware that this could potential bias my coefficeint estimates and this is subject to future refinement of the data. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CFO and corresponding control CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2)/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 38 Table 4a Testing CFO fixed effect on future crash risk, controlling firm CEO fixed effect (cont'd) Economic Economic Economic determinants Economic determinants determinants determinants and CFO and CFO only only fixed effect fixed effect (model 2-1) (model 2-1) (model 3-1) (model 3-1) CFO=513; CFO=513; Crash2 jt+1 N=7,103 N=7103 Testing Economic Determinatns = 0 F-statistics 6.03*** 5.29*** p value 0.0000 0.0000 Constraints F( 8, 6276) F( 8, 4940) Crash3 jt+1 N=7,103 N=7103 Testing Economic Determinatns = 0 F-statistics 4.78*** 2.94*** p value 0.0000 0.0028 Constraints F( 8, 6275) F( 8, 4939) Testing Manager Fixed Effect = 0 F-statistics 1.22*** p value 0.0017 Constraints F(460, 4940) Year fixed effect yes yes Firm fixed Effect yes yes Testing Manager Fixed Effect = 0 F-statistics 1.26*** p value 0.0003 Constraints F(457, 4939) Year fixed effect yes yes Firm fixed Effect yes yes Adjusted R2 Adjusted R2 -3.82% -1.22% Improvement in R2 relative to restricted model -7.62% -3.92% Improvement in R2 relative to restricted model In Raw Percentage 2.60% 2 As a % of restricted model R In Raw Percentage 3.70% 2 67.97% As a % of restricted model R 48.56% 1.This table presents the results from model (2-1) and (3-1). I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CFO dummies are jointly zero for hypothesis 1. A p-value of the f-test smaller than 0.1 suggests that the CFO dummies are not jointly zero, i.e. individual CFO having idiosyncratic effect on firm's crash risk in the future. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests to control for firm fixed-effect. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CFO and corresponding control CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 39 Table 4b Testing CEO fixed effect on future crash risk Economic Economic Economic Economic determinants and determinants and determinants determinants CEO fixed effect CEO fixed effect only only (model 3-2) (model 3-2) (model 2-2) (model 2-2) CEO=648 CEO=648 Crash1 jt+1 N= 5,536 N= 5,536 Crash% jt+1 N= 5,536 N= 5,536 Testing Economic Determinatns = 0 Testing Economic Determinatns = 0 F-statistics 3.06*** 2.78*** F-statistics 1.87 1.8* p value 0.0020 0.0045 p value 0.0596 0.0726 Constraints F( 8, 4836) F( 8, 4387) Constraints F( 8, 4836) F( 8, 4387) Testing Manager Fixed Effect = 0 F-statistics 1.22*** p value 0.0086 Constraints F(449, 4385) Year fixed effect yes yes Firm fixed Effect yes yes Testing Manager Fixed Effect = 0 F-statistics p value Constraints Year fixed effect yes Firm fixed Effect yes Adjusted R2 Improvement in R2 relative to restricted model In Raw Percentage Adjusted R2 Improvement in R2 relative to restricted model In Raw Percentage -10.16% -8.39% 1.77% 2 As a % of restricted model R 17.43% -13.59% 1.49*** 0.0000 F(449, 4387) yes yes -8.64% 4.95% 2 As a % of restricted model R 36.42% 1.This table presents the results from model (2-1) and (3-1). I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CEO dummies are jointly zero for hypothesis 1. A pvalue that is smaller than 0.1 suggests the coefficients of CEO dummies are not jointly zero, i.e. individual CEO having idiosyncratic effect on the crash risk measures of the firm. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests. Stata is not able to converge for the sample under the "xtlogit, fe" regression, so I use this alternative to approximate the coefficient. However, I am aware that this could potential bias my coefficeint estimates 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 40 Table 4b Testing CEO fixed effect on future crash risk (cont'd) Economic Economic Economic Economic determinants and determinants and determinants determinants CEO fixed effect CEO fixed effect only only (model 3-2) (model 3-2) (model 2-2) (model 2-2) CEO=648 CEO=648 Crash2 jt+1 N= 5,536 N= 5,536 Crash3 jt+1 N= 5,536 N= 5,536 Testing Economic Determinatns = 0 Testing Economic Determinatns = 0 F-statistics 6.57*** 5.34*** F-statistics 4.76*** 3.32*** p value 0.0000 0.0000 p value 0.0000 0.0009 Constraints F( 8, 4836) F( 8, 4387) Constraints F( 8, 4834) F( 8, 4385) Testing Manager Fixed Effect = 0 F-statistics 1.17** p value 0.0102 Constraints F(449, 4387) Year fixed effect yes yes Firm fixed Effect yes yes Testing Manager Fixed Effect = 0 F-statistics p value Constraints Year fixed effect yes Firm fixed Effect yes Adjusted R2 Improvement in R2 relative to restricted model In Raw Percentage Adjusted R2 Improvement in R2 relative to restricted model In Raw Percentage -5.52% -3.87% 1.65% 2 As a % of restricted model R 29.84% -9.06% 1.22*** 0.0018 F(449, 4385) yes yes -6.90% 2.16% 2 As a % of restricted model R 23.85% 1.This table presents the results from model (2-1) and (3-1). I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CEO dummies are jointly zero for hypothesis 1. A pvalue that is smaller than 0.1 suggests the coefficients of CEO dummies are not jointly zero, i.e. individual CEO having idiosyncratic effect on the crash risk measures of the firm. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests. Stata is not able to converge for the sample under the "xtlogit, fe" regression, so I use this alternative to approximate the coefficient. However, I am aware that this could potential bias my coefficeint estimates and this is subject to future refinement of the data. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 41 Table 5a CFO fixed effect on crash risk and CFO's personal and demographic characteristics PanelA: CFO fixed effect distribution for each crash(jump) risk measure and for managerial ability Crash1 j t+1 Crash% j t+1 Crash2 j t+1 Crash3 j t+1 MA_score jt Number of CFO coefficients significant at 53 90 52 14 53 10% % of total CFO sample significance at 10% Mean Effect (Coefficient) 25th percentile Median 75th percentile 11.28% 3.04% 11.52% 11.60% 20.59% -0.005 -0.001 0.123 0.047 -0.008 -0.274 0.001 0.252 -0.007 0.000 0.008 -0.700 0.076 0.847 -0.234 0.023 0.317 -0.056 -0.006 0.036 Panel B : CFO's fixed effect on MA_score (control for CEO) 2.09 F-stat p-value 0.000 Constraint F(437, 4847) Panel C: Descriptive of CFO personal, demographic characteristics Obs Mean 5% 50% 95% Managerial Ability 2,250 0.012 MA_score<0.000 1,164 0.517 MA_score>0.000 1,086 0.483 372 26 346 372 339 33 Age_Cohort Pre-War Post-War Gender Male Female -0.193 -0.005 0.267 0.0669 0.000 0.000 1.000 0.9110 0.000 1.000 1.000 42 Table 5a CFO fixed effect on crash risk and CFO's personal and demographic characteristics (continued) Panel D: CFO fixed effect on crash risk and managerial ability, age and gender: Simplied Model (5) Model (5) Crash1 jt+1 n=403 n=372 MA_Coeff jt 0.2347 1.01 0.0038 0.26 0.0003 0.07 -0.0026 -0.52 -0.0009 -0.22 Gender jt Age_Corhort jt Constant -0.0074 -0.35 Crash% jt+1 MA_Coeff jt n=398 0.0087 0.01 Gender jt Age_Corhort jt Constant Crash2 jt+1 MA_Coeff jt 0.0087 -0.84 n=402 2.2776 ** 2.96 Gender jt Age_Corhort jt Constant 0.0661 0.97 43 n=372 0.0038 0.26 0.0003 0.07 -0.0026 -0.52 -0.0009 -0.22 n=372 1.7092 ** 2.2 0.0552 0.23 0.2087 0.79 0.0032 0.01 Table 5a CFO fixed effect on crash risk and CEO's personal and demographic characteristics (continued) Panel D: CFO fixed effect on crash risk, and managerial ability, age and gender(continued ): Simplied Model (5) Model (5) Crash3 jt+1 n=401 n=370 MA_Coeff jt 0.7338 ** 0.4924 * 2.63 1.77 0.0766 Gender jt 0.89 Age_Corhort jt 0.0399 0.42 Constant 0.0296 -0.0443 0.228 -0.54 1. Panel A of Table 5a prestents the distribution of manager's fixed effect on crash risk measures and on managerial ability measure. The fixed effect on crash (jump) measure is the coefficients of switching CFO dummies estimated in model (3-1). And the fixed effect on managerial ability is the coefficeints of switching CFO dummies estimated in model (5). 2. Panel B presents the statistics of estimating switching CFO's fixed effect on managerial ability. The results show that individual CFO does have fixed ability after controlling for concurrent CEO, i.e. F-stat is 3. Panel C presents the descriptive statistics of fixed managerial ability, age and gender for the switching CFO sample in the test in PanelD. 4. Panel D shows result of regression model (4) that examines if CFO's fixed effect on ability, their age and gender are associated with the magnitude of their fixed effect on crash (jump) risk measures. I performed two-tailed t-test on coefficients to examine whether fixed effect on crash (jump) risk is associated with 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 44 Table5b CEO fixed effect on crash risk and CEO's personal and demographic characteristics: PanelA: CEO fixed effect distribution for each crash risk measure Crash1 j t+1 Crash% j t+1 Crash2 j t+1 Crash3 j t+1 MA_score jt Number of CEO significant at 10% % of total CEO sample significance at 10% Mean Effect (Coefficient) 25th percentile Median 75th percentile 51 14 58 47 66 12.91% 3.11% 14.68% 11.66% 18.28% -0.010 -0.704 -0.043 0.731 -0.001 -0.008 -0.001 0.006 0.035 -0.544 0.012 0.535 0.025 -0.072 0.000 0.136 -0.072 -0.072 0.000 0.136 Panel B : CEO's fixed effect on MA_score (controlling for CFO) F-stat 1.96 p-value 0.000 Constraint F(379, 3440) Panel C: Distribution of personal and demographic characteristics of switching CEOs: Obs Mean 5% 50% 95% Managerial Ability 1,734 -0.0003 -0.1962 -0.0105 0.2333 MA_score<0.000 802 0.1066 0.0048 0.0786 0.2993 MA_score>0.000 932 -0.0922 -0.2383 -0.0751 -0.0082 Age_Cohort Pre-War Post-War Gender Male Female 361 109 252 360 353 7 0.3028 0.0000 0.0000 1.0000 0.9778 0.0000 0.0000 1.0000 45 Table5b CEO fixed effect on crash risk and CEO's personal and demographic characteristics(continued): Panel D: CEO fixed effect on crash risk, and managerial ability, age and gender: Simplied Model(5) Model (5) N=309 N=309 Crash1 jt+1 0.5788 ** 0.5511 ** MA_Coeff jt 2.30 2.19 0.2185 Gender jt 1.26 -0.1011 * Age_Corhort jt -1.68 Constant 0.0154 -0.1673 0.56 -0.97 Crash% jt+1 MA_Coeff jt N=309 0.5788 ** 2.30 Gender jt Age_Corhort jt Constant 0.0154 0.56 Crash2 jt+1 MA_Coeff jt N=309 1.2432 1.32 Gender jt Age_Corhort jt Constant 0.0776 0.76 46 N=309 0.5511 ** 2.19 0.2185 1.26 -0.1011 * -1.68 -0.1673 -0.97 N=309 1.1449 1.22 0.5650 0.88 -0.4459 ** -2.00 -0.3410 -0.54 Table5b CEO fixed effect on crash risk and CEO's personal and demographic characteristics(continued): Panel D: CEO fixed effect on crash risk, and managerial ability, age and gender (continued): Crash3 jt+1 MA_Coeff jt N=309 0.0490 0.16 Gender jt Age_Corhort jt Constant 0.0546 1.66 N=309 0.0003 0.00 0.1885 0.91 -0.1794 ** -2.50 -0.0753 -0.37 1. Panel A of this table prestents the distribution of manager's fixed effect on crash (jump) risk measures and on managerial ability measure. The fixed effect on crash (jump) measure is the coefficients of switching CEO dummies estimated in model (3-2). And the fixed effect on managerial ability is the coefficeints of switching CEO dummies estimated in model (5). 2. Panel B presents the statistics of estimating switching CEO's fixed effect on managerial ability. The results show that individual CEO does have fixed ability after controlling for concurrent CFO, i.e. F-stat is <0.001 significant in testing that coefficients of switching CEO dummies are joint zero. 3. Panel C shows result of regression model (4) that examines if CEO's fixed effect on ability, their age and gender are associated with the magnitude of their fixed effect on crash (jump) risk measures. For the 553 CEO to begin with in the main test, after stata drops some managers due to multicollinearity and after merging with age and gender variables from ExComp, I have slightly smaller sample than the main test. 4. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 47 Appendix A Variable Definitions Crash Risk Measures: Firm-Specific-Weekly Return (W t+1 ) is equal to ln(1+ɛ), where ɛ is the residual from the following expanded market model regression: r Crash1 t+1 j,t = α +β 1j r m, t-1 +β 2j r m,t + β 3j r m,t+1 + β 4j r i,t-1 + β 5j r i,t + β 6j r i,t +1 + ɛ ji , where rj,t is the CRSP return on firm j in week t , and rm,t is the fama-french industry-weighted market index in week t. is the future crash incidence, defined as an indicator variable that equals to 1 for a firm-year that experiences one or more firm-specific weekly returns falling 3.09 standard deviation below the mean firm-specific weekly returns over the fiscal year, following prior literature (Hutton et al. 2009, Kim et al.2010ab, Kim and Zhang 2014, etc). Crash% t+1 is a variation of Crash1 t+1 It is the percentage of total crash incidences of a given industry-year the firm has experienced in that firm-year. Crash%t+1 is ratio of number of firm crash incidences in that year divided by the total firm crash incidences in the industry the firm was operating in during the same year. Crash2 t+1 is the negative skewness of future firm-specific-weekly return over the fiscal year period, calculated in the following equation Crash2 j,t+1 =-[n(n-1) 3/2 ƩW 3 Crash3 t+1 j,t+1 ]/[(n-1)(n-2)( ƩW 2 jt+1 ) 3/2 ] where n is the number of firm-specific weekly returns in a year, and W is the firm-spcific weekly return. is the log of the ratio of the standard deviations of down-week to up-week firm-specific returns. Control Variables of Crash Risk Models DTURN t is the average monthly share turnover over the current fiscal year period, minus average monthly share turnover over the previous fiscal year period, where monthly share turnover is calculated as the monthly trading volume divided by total number of shares outstanding during h NSKEW t ish the current year negative skewness of firm-specific weekly returns, defined in Crash2 t+1. SdW t is the standard deviation of the firm-specific-weekly return over the fiscal year period. Ret t is the mean of the firm-specific-weekly return over the fiscal year period. Size t is the log of total asset. 48 Appendix A Variable Definitions (Continued) MB t is the market value of equity divided by book value of equity. LEV t is the total long-term debts divided by total assets. ROA t+1 is the future return on asset, return on asset is defined as income before extraordinary items divided by lagged asset. DISACC t+1 is the absolute value of discretionary accruals, where discretionary accruals are estimated from the modified Jones model (Dechow et al., 1995). Variables for earnings forecast model: NumF t is the number of earnings forecast management issued per fiscal-year (including both annual and quarterly forecasts). NumForcann t is the number of annual earnings forecast management issued per fiscal-year. NumForcq t is the number of quarterly earnings forecast management issued per fiscal-year. Size t is the log of total asset. Leverage t is the total long-term debts divided by total assets. Abs_EPSChg t is the absolute value of the change in firm's eranings per share from year t-1 to t, deflated by stock price at the end of year t-1. ROA t is defined as income before extraordinary items divided by lagged asset. Growth t is the sales growth from year t-1 to year t. OpCF t is the cashflow from opeartion deflated by total assets. EPS_UP t equals 1 if firm's EPS in this is greater or equal to its EPS last year, 0 otherwise. MB t is the market value of equity divided by book value of equity. RDxp t is the expenditures on research and development scaled by total asset. Num_Analyst t is the number of analyst following the firm. DispForecas t is the standard deviation of analysts' forecasts of firm's earnings, devided by the absolute value of the median forecast. F-horizon t is the forecast horizon, defined as the number of days between the forecast date and the end of the fiscal period of forecasted earnings. I scaled forecast horizon by 360 days for annual and 90 for quarterly forecast. 49 Appendix B Replication of Bamber et al. (2010) Table B1 Sample Selection on replicating Bamber et al. (2010) Total Observations (including matching managers) Sample Selection Steps CFO CEO ExComp 6,754 6,898 44,118 Switching Managers 576 759 20,728 Data available for management earnings forecast in 438 460 8,674 CIG Data available for control variables calculation on Compustat and IBES 413 441 7,275 Managers whose fixed effects are estimable 325 283 6,119 This table presents the sample selection procedures in constrcuting the sample for manager's fixed effect model: 1. CFO are identified by (1) extracting keywords from the "anntitle" field, including excerpts of "Chief Financial Officer, chief finance officer, VP in Finance,vice president in finance, vp-finance, treasurer, comptroller", (2) using "cfoann" field indicator; CEO are identified by (1) extracting keywords from the "anntitle" field, including excerpts of CEO, Chief Executive Officer, (2) using "cfoann" field indicator. 2. Identified switching managers/CFO/CEO are managers that worked for at least two firms in the sample period. 3. Identified matching maangers/CFO/CEO are managers who worked for the same firm of switching managers, but that have not shown to have switched working firms in the sample period. Firm-years pertain to the matching managers served as firm-level control for switching manager fixed effect model. 50 Table B2. Descriptive Statistics of variables used in Bamber et al (2010) replication model (CEO and CFO sample combined) Variables NumF NumForcann NumForcq Size Leverage Abs_EPSChg ROA Growth OpCF EPS_UP LOSS MB RDxp Num_Analyst DispForecast F-horizon Observations Mean 7,275 4.971 7,275 2.815 7,275 2.156 7,275 7.666 7,275 0.087 7,275 0.007 7,275 0.155 7,275 0.104 7,275 0.101 7,275 0.566 7,275 0.158 7,275 3.016 7,275 0.036 7,275 16.707 7,275 0.267 7,275 0.555 Stdev. 3.910 2.845 2.456 1.499 0.168 0.139 0.115 0.271 0.084 0.496 0.365 23.595 0.059 10.598 1.166 0.319 5% 1.000 0.000 0.000 5.312 0.000 -0.136 0.012 -0.202 -0.010 0.000 0.000 0.709 0.000 4.000 0.013 0.000 50% 4.000 2.000 1.000 7.596 0.034 0.006 0.142 0.072 0.097 1.000 0.000 2.212 0.005 14.000 0.071 0.564 95% 13.000 8.000 7.000 10.207 0.419 0.132 0.348 0.481 0.235 1.000 1.000 8.586 0.152 37.000 0.824 1.081 This table presents the descriptive statistics of crash risk measures and control variables in manager's fixed effect model. This sample is the combination of CEO and CFO manager firm-years in 1. All continuous variables are winsorized at 1% level both sides. 2. This table presents descriptive statistics for dependent and independnet variables for the combined CEO and CFO sample (7,275), with 3,891 from CFO sample and 3,384 from CEO sample. 51 Table B3a. Replication of Table 3 of Bamber et al.(2010) Testing individual CFO/CEO fixed effect on forecast frequency Economic Economic determinants determinants Economic and CFO fixed and CEO fixed determinants effect effect CEO/CFO=608 CFO=325 CEO=283 D.V. : Number of Forecast per year N= 7,275 Testing Economic Determinatns = 0 F-statistics 27.68*** p value 0.000 Constraints F( 13, 6342) N=3,891 N=3,384 12.57*** 0.000 F( 13, 2897) 10.16*** 0.000 F( 13, 2546) Testing Manager Fixed Effect = 0 F-statistics p value Constraints 1.62*** 0.000 F(325, 2897) 1.96*** 0.000 F(283, 2546) Year fixed effect Firm fixed Effect yes yes Adjusted R2 17.99% 2 Improvement in R relative to restricted model In Raw Percentage As a % of restricted model R2 yes yes yes yes 18.51% 22.53% 0.53% 4.55% 2.92% 21.73% 1.This table presents the results from model (2-1) and (3-1). I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CFO dummies are jointly zero for hypothesis 1. F-statsitics is the value from this coefficient testing, and a p-value smaller than 0.1 indicates there is CFO fixed effect on firm crash risk. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests to control for firm fixed-effect. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CFO and corresponding control CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 52 Table B3b. Testing individual CFO/CEO fixed effect on forecast frequency of ANNUAL earnings forecasts Economic determinants Economic determinants and CFO fixed effect Economic determinants and CEO fixed effect CEO/CFO=608 CFO=325 CEO=283 D.V. : Number of N= 7,275 Annual Forecast per year Testing Economic Determinatns = 0 F-statistics 15.88*** p value 0.000 Constraints F( 13, 6342) N=3,891 N=3,384 8.13*** 0.000 F( 13, 2546) 5.35*** 0.000 F( 13, 2546) Testing Manager Fixed Effect = 0 F-statistics p value Constraints Year fixed effect yes Firm fixed Effect yes 1.65*** 0.000 F(325, 2897) yes yes 2.14*** 0.000 F(283, 2546) yes yes 19.55% 22.94% 1.70% 5.08% 9.50% 28.46% Adjusted R2 17.86% 2 Improvement in R relative to restricted model In Raw Percentage As a % of restricted model R2 1.This table presents the results from model (2-1) and (3-1) on switching CEO or CFO's fixed effect on annual earnings forecast frequency. I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CFO of CEO dummies are jointly zero for hypothesis 1. F-statsitics is the value from this coefficient testing, and a p-value smaller than 0.1 indicates there is CFO fixed effect on firm crash risk. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests to control for firm fixed-effect. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CFO and corresponding control CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 53 Table B3c. Testing individual CFO/CEO fixed effect on forecast frequency of QUARTERLY earnings forecasts Economic Economic Economic determinants and determinants and determinants CFO fixed effect CEO fixed effect CEO/CFO=608 CFO=325 CEO=283 D.V. : Number of N= 7,275 N=3,891 N=3,384 Quarterly Forecast per year Testing Economic Determinatns = 0 F-statistics 18.79 8.38*** 8.06 p value 0.000 0.000 0.000 Constraints F( 13, 6342) F( 13, 2897) F( 13, 2546) Testing Manager Fixed Effect = 0 F-statistics p value Constraints 1.88*** 0.000 F(325, 2897) 1.57*** 0.000 F(283, 2546) 3.87% 2.86% 3.01% 2.01% 351.33% 234.18% Year fixed effect Firm fixed Effect Adjusted R2 0.86% 2 Improvement in R relative to restricted model In Raw Percentage As a % of restricted model R2 1.This table presents the results from model (2-1) and (3-1) of switching CEO or CFO fixed effect on the frequency of quarterly earnings forecast. I report the F-statisitc of testing the whether coefficeints of the economic determinants are jointly zero, and whether the coefficients of switching CFO or CEO dummies are jointly zero for hypothesis 1. F-statsitics is the value from this coefficient testing, and a p-value smaller than 0.1 indicates there is CFO fixed effect on firm crash risk. 2. Definitions of variables in the model can be found in Appendix A. 3. I use the "xtreg, fe" command in Stata for all tests to control for firm fixed-effect. 4. I have calculated the adjusted R2 for both models and take the difference between the expanded model (3-1) and the restricted model (2-1) to see how much more explanatory power the switching CFO and corresponding control CEO adds to the model. "As a % of restricted model R2 is calculated as (expanded model R2 - restricted model R2 )/restricted model R2 . 5. Significance level of 0.1, 0.05 and <0.01 is denoted as *, ** and ***. 54 Table B4. -- The Table2 of Bamber et al. (2010) on top managers' fixed effects on the Number of Management Earnings Forecasts 55