1 Introduction
Two of the most influential theories of individual selection into entrepreneurship are based on the concepts of risk aversion, RA (Kihlstrom and Laffont
1979), and balanced skills, BS (Lazear
2005). Specifically, if entrepreneurship is a more risky occupation than paid employment, and if individuals vary in their aversion to risk, then it follows that the least risk-averse people are most likely to become the entrepreneurs (Kihlstrom and Laffont
1979). Moreover, because entrepreneurship requires expertise in a variety of roles while paid employment rewards specialists, people with balanced skills are most likely to become entrepreneurs as well (Lazear
2005).
Despite the prominence and continued influence of the RA and BS theories, the evidence for them is decidedly mixed. For example, many psychology-based studies have failed to detect any difference between entrepreneurs and non-entrepreneurs in terms of their risk attitudes (Brockhaus
1980; Shaver and Scott
1991). Meta-analyses of risk aversion and entrepreneurial selection have also generated conflicting results (Stewart and Roth
2001; Miner and Raju
2004), with Miner and Raju (
2004) concluding that the available evidence about the validity of the RA theory is inconclusive. Economics-based studies have also generated mixed findings (Astebro et al.
2012). While some research suggests that entrepreneurs are indeed typically less risk-averse than employees (Cramer et al.
2002; Ekelund et al.
2005; Ahn
2010; Brown et al.
2011), others have reported insignificant differences between these groups (Barsky et al.
1997; Parker
2008). Still others have found an association between risk aversion and entrepreneurial entry (Simons and Astebro
2010), a non-monotonic relationship between risk aversion and the entrepreneur’s work commitment (Elston et al.
2005), and a dependency of the relationship between risk aversion and entrepreneurship on other factors such as education (Polkovnichenko
2002). And while several studies have measured balanced skills in terms of the number of prior job roles, and have generated evidence consistent with the BS theory (Lazear
2005; Wagner
2006; Hartog et al.
2010; Astebro and Thompson
2011), the robustness of these results has been called into question (Silva
2007).
While RA and BS remain popular and influential theories, not least because of their persuasive and attractive internal logics, their lack of clear empirical support raises several troubling questions. For example, does the inconclusive evidence about the role of risk aversion mean that any differences of this sort do not actually affect occupational choice, perhaps because other factors dominate this choice (or because paid employment is also risky: Parker
1997)? Likewise, have the estimates of skill balance been weakened by using a flawed proxy, namely the number of prior job roles—or are they actually a mirage, masquerading as hard-to-measure personal abilities (Silva
2007; Hartog et al.
2010), or preferences such as a ‘taste for variety’ (Astebro and Thompson
2011)? Lacking answers to these questions, our knowledge about reasons why people become entrepreneurs is bound to remain limited.
This paper proposes a different argument which may shed light on this issue. Previous work has indeed examined the effects of both risk aversion and skill balance on the entrepreneurial entry decision, but treating them as independent variables (e.g., Lazear
2005: 672). We instead propose that balanced skills and risk aversion are not independent and should be studied and examined empirically in tandem. Given evidence that risk-averse actors like to diversify their human capital (e.g., Amihud and Lev
1981), one might expect highly specialized employees to be left with few competitive options if returns from specialism suddenly become less valuable in fast-changing, uncertain environments (Abernathy and Wayne
1974). Then risk-averse individuals who fear the loss of flexibility associated with highly specialized human capital may respond by diversifying their human capital investments. As a result, risk-averse people could ironically end up acquiring exactly the balanced skill sets which are especially conducive to entrepreneurship.
As well as being of interest in its own right, the possibility that risk aversion and balanced skills are positively related implies, as we go on to show, that empirical studies (which have ignored this interdependence hitherto) might have underestimated both of their impacts on entrepreneurial selection. In principle, this point might help to explain the mixed body of evidence pertaining to the RA and BS theories.
The paper makes the following contributions. First, it extends our theoretical understanding of entrepreneurship as an occupational choice by proposing a novel association between the two hitherto separate concepts of risk aversion and balanced skills. Our simple formulation extends the theory of BS from a certain environment (as in Lazear
2005) to a risky one. Risk is present in both occupations; and the acquisition of balanced skills is treated as a choice variable in our theory, rather than being taken as given as in Lazear (
2005).
Second, our theorizing proposes a richer empirical specification of career choices between entrepreneurship and wage employment, which is estimated using a sample of recent graduates from Dutch universities. The dataset has several attractive properties. One is that, in line with our theory, the survey respondents (who are sampled shortly after graduation) are homogeneous in terms of their education levels and labor market experience. Consequently, differences in human capital between individuals pertain (almost) exclusively to skills balance, rather than to skills levels. We deem this an advantage given Polkovnichenko (
2002) insight that the risk of entrepreneurship is lower when human capital is greater, since human capital is homogeneous in our dataset. Another interesting aspect of the dataset is that it enables us to depart from the conventional practice of proxying skills balance by the variety of prior labor market experience. The latter may be associated with unobserved abilities (Silva
2007). Instead, we propose a novel measure of skills balance based on the observed multi-industry versatility of degree majors. Thus, consistent with our theory, skills balance is measured prior to when occupational choices are observed, thereby avoiding problems of reverse causality. However, we acknowledge upfront that we are not able to eliminate common causation by an unobservable individual-fixed variable. This weakness remains with the field.
Third, the paper provides a platform for re-evaluating mixed prior evidence from tests of the RA and BS theories. It assesses empirically the implications of omitting each of risk aversion and skill balance measures from empirical models of entrepreneurship and quantifies the biases that can result therefrom.
The next section outlines a simple model of skill balance acquisition and occupational choice. The sections that follow describe the empirical methods and data, before presenting the empirical results. The final section highlights some of the study’s limitations and concludes.
2 The model
There is a unit mass of atomistic decision-making individuals. There are two occupations, paid employment (P) and entrepreneurship (E), and two skills which generate returns in both occupations, \(x_{1}\) and \(x_{2}\). To abstract from issues of aggregate skill acquisition, which is not of interest here, assume that every agent obtains a unit endowment of total skill. This allows us to use the more compact notation \(x_{1}=x\) and \(x_{2}=1-x\) hereafter. In E, both skills are needed for any output to be produced, whereas in P, workers can specialize in one skill. People specialize if they choose \(x^{*}=1\) or \(x^{*}=0\). If \(0\,<\,x^{*}\,<\,1\) they choose some mixture of skills. The production technology which maps x and \(1-x\) into returns differs in each occupation, as described below.
The timing of events is as follows. Reflecting the timing of choices in students’ lives, first in formal education and then in the workforce, the model comprises two stages. At stage one, individuals first undergo schooling, at which point x is chosen. Here we simply observe that x is defined in terms of the balance of formal subject choices and the number of jobs which majors in those subjects open students up to (precise definitions are deferred to the data section below). Students do not yet know their idiosyncratic ability in either occupation; nor do they know their future stochastic returns given those abilities. There are therefore two sources of risk: ‘idiosyncratic’ risk (i.e., risk relating to the levels of their own abilities) and ‘market’ risk (i.e., risk relating to the returns to those abilities). Students choose x
ex ante, i.e., before they know which occupation they will enter after leaving school. However, they use all of the available information when choosing x, namely the probabilities p and \(1-p\) of eventually working in P and E, respectively. Once students have determined their optimal x, denoted \(x^{*}\), its value is fixed thereafter. Since (as noted above) we will be measuring x in terms of educational skill balance, this modeling assumption also matches the data at hand.
At stage two, students graduate and enter the workforce. At this point, their abilities in the two occupations are revealed. This resolves their idiosyncratic risk—though their market risk remains. Only now do they have enough information to make their ex post occupational choice, which is conditioned on their \(x^{*}\) determined at stage one.
First the model is outlined for the case of certainty. This is the case analyzed by Lazear (
2005) and others. We then extend the (stage one) analysis to the case of risk, analyzing the problem of choosing
x to maximize
ex ante expected utility. Finally, we analyze
ex post (stage two) occupational choices.
For tractability, we will use generalized versions of Lazear’s specifications which do not predetermine
x choices by assumption—and, more importantly, which enable the model to be extended tractably to deal with the case of risk. We will first show that our specifications generate the same results in the case of certainty. Our specifications of the returns in each occupation are:
$$\begin{aligned} y^{\mathrm{P}}(x) & = \omega _{1}x+\omega _{2}(1-x) \end{aligned}$$
(1)
$$\begin{aligned} y^{\mathrm{E}}(x) & = \theta x(1-x)\,. \end{aligned}$$
(2)
In the benchmark case of certainty considered by Lazear (
2005), all parameters in the set
\(\Omega :=\{\omega _{1}\,,\,\omega _{2}\,,\,\theta \}\) are positive. It follows immediately that workers do best with
\(x=1\) if
\(\omega _{1}>\omega _{2}\) and with
\(x=0\) if
\(\omega _{1}<\omega _{2}\) (either solution is equally good if
\(\omega _{1}=\omega _{2}\)). Entrepreneurs do best with
\(x=\frac{1}{2}\). Hence employees specialize in one skill while entrepreneurs have balanced skills. Provided
\(\theta >4\max \{\omega _{1},\omega _{2}\}\), individuals with balanced skills do best in E, whereas those possessing specialized skills do best in P. These predictions mirror Lazear’s.
We can now form the
ex ante (i.e., stage one) subjective probability that P is preferred to E. Returns to skills are
\(\bar{\mu }_{1}=\mu _{1}+a_{1}\),
\(\bar{\mu }_{2}=\mu _{2}+a_{2}\) and
\(\bar{m}=m+b\): students do not know the values of
\(a_{1}\),
\(a_{2}\) and
b but know they are normally distributed with means zero and variances
\(\sigma ^{\mathrm{P}}\),
\(\sigma ^{\mathrm{P}}\) and
\(\sigma ^{\mathrm{E}}\), respectively. Hence the
ex ante probability that P will be preferred to E
after idiosyncratic risk is resolved is:
$$\begin{aligned} p(x)= & {} \Pr \left[ EU(y^{\mathrm{P}})\ge EU(y^{\mathrm{E}})\right] \\= & {} \Pr \left[ a_{1}x+a_{2}(1-x)-bx(1-x)\ge mx(1-x)\right. \\&\left. -\mu _{1}x-\mu _{2}(1-x)-(\lambda \psi /2)x^{2}(1-x)^{2}\right] \\= & {} 1-\Phi (\Upsilon (x))\,, \end{aligned}$$
where
\(\Phi (\cdot )\) is the cumulative distribution function of the standard normal distribution (with density function
\(\phi\)) and
$$\begin{aligned} \Upsilon (x):=\frac{mx(1-x)-\mu _{1}x-\mu _{2}(1-x)-(\lambda \psi /2)x^{2}(1-x)^{2}}{\sqrt{\sigma ^{\mathrm{P}}\left( x^{2}+(1-x)^{2}\right) +\sigma ^{\mathrm{E}}x^{2}(1-x)^{2}}}\,. \end{aligned}$$
The first- and second-order conditions for problem (
5) are, respectively,
$$\begin{aligned} J_{1}= & {} [1-\Phi (\Upsilon (x))][\mu _{1}-\mu _{2}+\lambda \sigma ^{\mathrm{P}}-2\lambda \sigma ^{\mathrm{P}}x]\nonumber \\&+\Phi (\Upsilon (x))(1-2x)[m-\lambda (\sigma ^{\mathrm{E}}+\psi )x(1-x)]\nonumber \\&+\phi (\Upsilon (x))[EU(y^{\mathrm{E}})-EU(y^{\mathrm{P}})]\frac{\partial \Upsilon (x)}{\partial x}=0\end{aligned}$$
(6)
$$J_{2}= -[1-\Phi (\Upsilon (x))]2\lambda \sigma ^{\mathrm{P}}-\Phi (\Upsilon (x))\left[2m+\lambda (\sigma ^{\mathrm{E}}+\psi )(1+6x(1-x))\right]+2\phi (\Upsilon (x))\frac{\partial \Upsilon (x)}{\partial x}\frac{\partial }{\partial x}\left[EU(y^{\mathrm{E}})-EU(y^{\mathrm{P}})\right]+\left[ \phi '(\Upsilon (x))\left( \frac{\partial \Upsilon (x)}{\partial x}\right) ^{2}+\phi (\Upsilon (x))\frac{\partial ^{2}\Upsilon (x)}{\partial x^{2}}\right] [EU(y^{\mathrm{E}})-EU(y^{\mathrm{P}})]$$
(7)
In the following, we analyze the comparative statics for an agent who is indifferent
ex ante between E and P. For these agents
\(EU(y^{\mathrm{E}})-EU(y^{\mathrm{P}})=0\) so the final term of (
6) equals zero. This leaves only the first line of (
7) in the second-order condition, which is certainly negative, guaranteeing a maximum for this problem.
We make the following assumption of a lower bound on the idiosyncratic risk in occupation P:
Assumption
1 plays an important role because it encourages risk-averse people to choose balanced skills when they take into account the possibility that at stage two they might be in P. If Assumption
1 did not hold, risk-averse people could do better by choosing unbalanced skills, and taking their chances in P.
Proposition
2 suggests that Lazear’s well-known occupational choice result extends to the new domain of risky returns in paid employment and entrepreneurship. Finally, we examine the effects of risk aversion on occupational choice. Changes in
\(\lambda\) have ‘direct’ and ‘indirect’ effects on occupational choice. The direct effect relates to risk averters’ dislike of payoff variance. The indirect effect relates to the impact on skill profiles (Proposition
1) which affect mean returns. The following proposition states the result:
Proposition
3 suggests that balanced skills have subtle implications for the effects of risk aversion on
ex post occupational choice. On the one hand, when market risk is present, the direct effect of risk aversion induces risk-averse people to choose paid employment over entrepreneurship. This is the well-known effect studied in previous research. On the other hand, because greater risk aversion encourages people facing idiosyncratic risk to acquire more balanced skill sets
ex ante, and because balanced skills are more valuable in entrepreneurship
ex post, greater risk aversion also serves to eventually make entrepreneurship more attractive relative to paid employment through the indirect balanced skills channel.
2 An empirical analysis of risk aversion and balanced skills in entrepreneurship needs to take account of these distinct mechanisms.
4 Estimation results
We first test Proposition
1 by measuring the association between skill balance,
\(\hbox {SB}\), and risk aversion,
\(\lambda\), among employees. Column I of Table
2 presents the results for a ‘baseline’ specification without control variables. It offers clear support for the proposition that people who are more risk-averse acquire significantly more balanced skill sets. These results continue to hold when control variables are included and alternative estimation methods, namely robust estimation and clustering, are used (columns II–IV). The results for the two underlying
\(\hbox {SB}\) measures can be found in Appendix Table
7. Across the board, the results support Proposition
1.
Table 2
Risk aversion and skill balance (SB)
Risk aversion (\(\lambda )\)
| 0.0001*** | 0.0001*** | 0.0001*** | 0.0001*** |
(3.020) | (3.130) | (2.870) | (3.310) |
Male | | 0.001 | | 0.001 |
| (0.700) | | (0.420) |
Age (at graduation) | |
\(-\)0.001 | |
\(-\)0.001 |
| (1.600) | | (0.940) |
Mother’s education | | 0.001 | | 0.001 |
| (1.040) | | (0.940) |
Father’s education | | 0.000 | | 0.000 |
|
\(-\)(0.050) | | (0.060) |
GPA_secondary | |
\(-\)0.001 | |
\(-\)0.001 |
|
\(-\)(0.570) | | (0.580) |
GPA_tertiary | | 0.001 | | 0.001 |
| (0.440) | | (0.530) |
Constant | 0.029*** | 0.047** | 0.029*** | 0.047 |
(11.94) | (2.51) | (11.18) | (1.63) |
N
| 2619 | 2596 | 2619 | 2596 |
\(R^{2}\)
| 0.033 | 0.0055 | 0.0033 | 0.0055 |
F
| 9.14 | 2.27 | 8.25 | 2.14 |
\(\Pr >F\)
| 0.0025 | 0.0268 | 0.0065 | 0.0619 |
Control variables included | No | Yes | No | Yes |
Robust estimation | Yes | Yes | No | No |
Clustered estimation (j = 40) | No | No | Yes | Yes |
Table 3
Self-employed entrepreneurship, risk aversion and skill balance (SB)
\(\hbox {SB}\)
| 2.5818* | 2.7175** | 2.9830** | 3.0573** | | |
(1.94) | (2.08) | (2.16) | (2.29) | | |
Risk aversion (\(\lambda )\)
| | |
\(-\)0.0073*** |
\(-\)0.0075*** |
\(-\)0.0064*** |
\(-\)0.0060*** |
| | (3.29) | (3.32) | (3.20) | (2.68) |
N
| 2692 | 2669 | 2692 | 2669 | 3002 | 2975 |
\(\hbox {pseudo}-R^{2}\)
| 0.0058 | 0.0313 | 0.0230 | 0.0458 | 0.0129 | 0.0313 |
Wald \(\chi ^{2}\)
| 3.78 | 27.00 | 13.00 | 38.99 | 9.91 | 23.93 |
\(\Pr >\chi ^{2}\)
| 0.0520 | 0.0003 | 0.0015 | 0.0000 | 0.0016 | 0.0012 |
Control variables included | No | Yes | No | Yes | No | Yes |
Robust estimation | No | No | No | No | Yes | Yes |
Clustered estimation ( j = 40) | Yes | Yes | Yes | Yes | No | No |
Next, we test Proposition
2 by estimating a probit model of self-employment status. The results reported in Table
3 display a significant positive effect from
\(\hbox {SB}\). This supports Proposition
2 and is consistent with the BS theory (and Astebro and Thompson (
2011) ‘taste for variety’ argument)—as well as prior empirical findings from Lazear (
2005), Wagner (
2006) and Astebro and Thompson (
2011). The positive association between balanced skills and self-employment status hold irrespective of whether control variables are included (specifications II and IV) or not (specifications I and III). Including the risk aversion variable,
\(\lambda\), does not change this result either (compare specifications I and II with III and IV). The results continue to hold using the underlying measure ‘Generality,’ but not using the underlying measure ‘Grade variance’ (see Appendix Table
8 for details).
Table
3 reveals a significant negative association between risk aversion and self-employment. This result is consistent with both the RA theory and Proposition
3(a). The significantly negative association persists irrespective of whether we include control variables [specifications IV and VI] or a measure of balanced skills [specifications III and IV]. In addition, the same results hold when the underlying measures of balanced skills are used instead of
\(\hbox {SB}\) (see Appendix Table
8).
To obtain an indicator of the economic significance of the result, we have calculated the marginal effect of the probit estimates, evaluated at the mean values of all the independent variables, for the fourth (most parsimonious) specification in Table
3. At the mean level of ‘balanced skills,’ a one standard deviation in balanced skills (0.035) is associated with an increase in the likelihood of self-employment of 0.6 %. At first sight that may seem small; however, in the same specification the predicted likelihood of self-employment (also evaluated at the sample means of all independent variables) is 2.3 %. The percentage increase in the likelihood of self-employment associated with a one standard deviation increase in balanced skills is therefore 26 %, which is substantial. The corresponding percentage increase in the likelihood of self-employment associated with a decrease of one standard deviation in the measure of risk aversion (21.49) is even greater, at 38 %. Hence the measured effects are not only statistically significant, but also economically meaningful.
We also estimated Table
3 using a linear probability model (LPM) as an alternative to the probit model as a way of testing the robustness of the results (that have been obtained with relatively few clustered groups). Appendix Table
9 presents the LPM results. The similarity of these results to what we show in the main table suggests robustness. The signs and significance levels of the variables are similar in both tables. Moreover, comparing the marginal effects derived from the probit estimates to the LPM coefficients shows that the magnitudes of the estimated associations are similar too.
As noted in Sect.
2, Proposition
3(b) follows logically from Propositions
1 and
2, both of which received empirical support above. And as noted in Sect.
3, an implication of Proposition
3(b) is that excluding
\(\hbox {SB}\) from (
10) will increase the estimate of
\(\beta _{1}\) in this equation, while excluding
\(\lambda\) from (
10) will reduce the estimate of
\(\beta _{2}\). Inspection of Table
3 indicates that the coefficients change in the expected directions when these exclusion restrictions are imposed. But are these differences statistically significant? To answer this question, we adopt the testing approach outlined in the previous section and report the
\(\chi ^{2}\) statistics in Table
4. These results clearly show that the expected biases are statistically significant.
Table 4
Testing the indirect effect of risk aversion on self-employment
| | |
\(\beta _{2}>\beta _{2}|\beta _{1}=0\)
| | |
\(\chi ^{2}\)
| 4.18** | 3.96** |
P value | 0.0410 | 0.0465 |
N
| 2692 | 2669 |
Corrolary | | |
\(\beta _{1}<\beta _{1}|\beta _{2}=0\)
| | |
\(\chi ^{2}\)
| 5.55** | 12.34*** |
P value | 0.0185 | 0.0004 |
N
| 3002 | 2975 |
Control variables included | No | Yes |
Clustered estimation ( j = 40) | Yes | Yes |
With regard to the relationship between risk and balanced skills, it is helpful to compare our findings with those of Lazear (
2005) and Astebro and Thompson (
2011). First, although Lazear (
2005) measured risk tolerance, whereas we measured risk aversion, adding these different risk variables affected the skill balance coefficient in a similar direction and magnitude. Lazear’s skill balance coefficient adjusted by 10.2 %, while ours adjusted in the same direction by 12.5 %. While we cannot verify the statistical significance of the difference in magnitudes of the coefficients on balanced skills for Lazear (
2005), in our case the difference is statistically significant. Second, Astebro and Thompson (
2011) found that risk aversion decreased the probability of choosing entrepreneurship and decreased skill balance as well. The discrepancy between our findings and those from Astebro and Thompson (
2011) is striking. Several reasons could explain this, including differences in the data samples and random effects, for example. Another possibility, however, is that Astebro and Thompson (
2011) used a measure of risk aversion which is sensitive to career context. Specifically, they measured risk aversion by such survey items as ‘I would participate only in business undertakings that are relatively certain’ and ‘I probably would not take the chance of borrowing money for a business deal even if it might be profitable.’ They remarked that ‘it appears that those who are more risk-averse are less likely to become entrepreneurs, less likely to choose a variety of jobs, and less likely to earn a high income’ (
2011: 646). We believe that there may be an alternative explanation: that those who have (already) chosen to specialize, based on gradual realization or identification of the domains in which their strengths lie, will be biased against taking risks in domains where they themselves have realized they are weak.
Finally, if risk aversion has a negative direct, and a positive indirect, effect on entrepreneurship, what is the overall (net) effect and how does it vary across sample cases? The estimated net effect of risk aversion on entrepreneurship is certainly negative at the sample mean; but it turns out to be positive for 12 % of the sample cases. For these cases, the impact of risk aversion on the acquisition of balanced skills is so powerful that it actually turns risk aversion into a force promoting entrepreneurship.
5 Conclusion
A popular economic theory of entrepreneurship is that risk aversion decreases the likelihood of entrepreneurship. More recently, researchers have begun to embrace Lazear (
2005) theory predicting that balanced skills increase the likelihood of entrepreneurship. Despite these clear-cut theoretical predictions, empirical estimates of the effects of risk attitude and skills balance on entrepreneurship choices have been mixed. This paper has presented a two-stage theory of choices of skill balance and occupational choice which unify these two (hitherto weakly connected) strands of theoretical work, and which may help explain the inconclusive nature of prior empirical findings. In contrast to research endowing skill balance and risk with only independent effects, we have argued that accurate estimation needs to take into account a possible mediating relationship between these two constructs. We propose that by making the acquisition of balanced skills more attractive, risk aversion can even end up as a positive force promoting entrepreneurship—contrary to what might be expected from theories of RA which ignore BS arguments.
Our measures of skill balance have enabled us to conduct a first test of our theory, using two different measures of skill balance: industry applicability of university majors, and variance in grades across basic coursework in secondary school. These measures have the advantage of occurring prior to occupational choices, though they might still be prone to endogeneity. We leave it to future research to propose and investigate other possible variables which might be free of possible endogeneity bias. We also leave it to future research to investigate how the addition of variables such as personality, access to capital and prospective entrepreneurial setup costs might influence the relationships among risk aversion, skill balance, and entrepreneurship.
Nevertheless, our arguments and empirical findings may command interest beyond the community of entrepreneurship scholars, including among practitioners and entrepreneurs. Our results reveal, perhaps surprisingly, that some risk-averse people, long deemed inherently ill-suited to entrepreneurship, might actually be well-suited to this occupation after all. This insight could have implications for entrepreneurship educators, who often stress the ‘negative’ aspects of risk aversion for entrepreneurship without suggesting any positive aspects. It is also possible that young people underestimate the future value of acquiring balanced skills, for instance by discounting the possibility of turning entrepreneur later in life. Our research suggests that the acquisition of balanced skills could be usefully encouraged at school and university since it builds a valuable future option for students.
It is also possible that some cultures or environments succeed, either deliberately or otherwise, in fostering balanced skills among their population, or in channeling risk aversion into the acquisition of balanced skills. For instance, formal education and corporate management training programs are known to differ in their emphasis on specialized relative to balanced skill acquisition, or in the temporality of such acquisition (Hsieh
2016). If governments genuinely wish to encourage entrepreneurship, a less specialized school curriculum might be one indirect, and long-term, way of doing so. Conversely, for firms concerned about losing employees to entrepreneurship (Hellmann
2007), specialists might be favored over job candidates with balanced skills. Extending the logic in this paper, one is led to wonder whether there might be other counterintuitive indirect relationships between balanced skills and individuals’ preferences or personality traits. For example, people who have a ‘need for achievement’ may spend a decade and longer in a single field of study in order to attain the requisite expertise (Simon and Gilmartin
1973). In contrast, those who have no such need for achievement may dabble in whatever interests come their way, culminating in a balanced skill profile. The same could be true of unconfident people having low expectations of their success or the rate of return to their human capital. Instead of being jacks-of-all-trades, such individuals might behave more like Astebro and Thompson (
2011) ‘hobos.’ It would be interesting to explore how these personality factors interface with skill acquisition at school and university, varied job experience afterward, and also participation in entrepreneurship. We leave this issue for future research.
To conclude, this paper has proposed a novel linkage between risk aversion and balanced skills which casts theories of entrepreneurial selection in a new light. The paper also carries implications for scholars concerned with interpreting the body of evidence on risk aversion and balanced skills theories of entrepreneurship. And finally, its findings should interest practitioners and educators who seek to promote entrepreneurship as an occupational choice.