Hostname: page-component-78c5997874-fbnjt Total loading time: 0 Render date: 2024-11-05T15:34:23.271Z Has data issue: false hasContentIssue false

A Domain-Specific Risk-Taking (DOSPERT) scale for adultpopulations

Published online by Cambridge University Press:  01 January 2023

Ann-Renée Blais*
Affiliation:
Defence Research and Development Canada Toronto, Toronto, Ontario, Canada
Elke U. Weber*
Affiliation:
Center for the Decision Sciences, Columbia University
*
*Correspondence concerning this article should beaddressed to Dr. Ann-Renée Blais, Defence Research and Development CanadaToronto, 1133 Sheppard Ave. West, P.O. Box 2000, Toronto, Ontario, Canada M3M3B9, Tel: 416-635-2000 ext. 3082, Fax: 416-635-2013.
Rights & Permissions [Opens in a new window]

Abstract

This paper proposes a revised version of the original Domain-Specific Risk-Taking(DOSPERT) scale developed by Weber, Blais, and Betz (2002) that is shorter andapplicable to a {broader range of ages, cultures, and educational levels}. Italso provides a French translation of the revised scale. Using multilevelmodeling, we investigated the risk-return relationship between apparent risktaking and risk perception in 5 risk domains. The results replicate previouslynoted differences in reported degree of risk taking and risk perception at themean level of analysis. The multilevel modeling shows, more interestingly, thatwithin-participants variation in risk taking across the 5 content domains of thescale was about 7 times as large as between-participants variation. We discussthe implications of our findings in terms of the person-situation debate relatedto risk attitude as a stable trait.

Type
Research Article
Creative Commons
Creative Common License - CCCreative Common License - BY
The authors license this article under the terms of the Creative Commons Attribution 3.0 License.
Copyright
Copyright © The Authors [2006] This is an Open Access article, distributed under the terms of the Creative Commons Attribution license (http://creativecommons.org/licenses/by/3.0/), which permits unrestricted re-use, distribution, and reproduction in any medium, provided the original work is properly cited.

1 Introduction

People differ in the way they resolve decisions involving risk and uncertainty, and these differences are often described as differences in risk attitude. In the expected utility framework and its variants, including prospect theory (Kahneman & Tversky, Reference Kahneman and Tversky1979; Tversky & Kahneman, Reference Tversky and Kahneman1992), such apparent differences in risk attitude are modeled by utility functions that differ in shape, with different degrees of concavity (convexity) to explain risk aversion (seeking). Risk attitude is the parameter that differentiates between the utility functions of different individuals (e.g., Pratt, Reference Pratt1964) and is intended as nothing more than a descriptive label for the concavity or convexity of the utility function. Popular interpretations of risk attitude, however, often consider it to be a personality trait (Weber, Reference Weber1998).

The consideration of risk attitude as a personality trait has undergone a similar development as that of personality traits in general. While traits were initially defined as stable (i.e., situation-invariant) personality characteristics (Allport & Allport, Reference Allport and Allport1921) that were assumed to be the result of biological differences or early childhood experiences (Eysenck & Eysenck, Reference Eysenck and Eysenck1985), the empirical observation of low correlations between trait-related behavior in different situations has given rise to more complex definitions that acknowledge the situational determinants of behavior while preserving generality in the way personality traits shape the pattern of behavior across situations (Mischel & Shoda, Reference Mischel and Shoda1995).

The following two observations have been problematic for the simple expected-utility definition of risk attitude as a personality trait. First, different methods of measuring people’s utility functions (and thus risk attitudes) have been shown to result in different classifications of individuals (Slovic, Reference Slovic1964). More importantly, even when using the same assessment method, individuals have not shown themselves to be consistently risk seeking (averse) across different domains and situations, both in laboratory studies (Schoemaker, Reference Schoemaker1990) and managerial contexts. MacCrimmon and Wehrung (Reference MacCrimmon and Wehrung1986, Reference MacCrimmon and Wehrung1990) showed, for example, that managers have different risk attitudes when making decisions involving personal versus company money or when evaluating financial versus recreational risks. These problems limit the predictive validity of expected-utility based assessments of risk attitude.

Given the lability of expected-utility based assessments of risk attitude, it should not be surprising that measurement scales based upon them have not had much success in predicting people’s choices or behaviors across a range of situations (Bromiley & Curley, Reference Bromiley and Curley1992). The observed content-specificity of responses suggests that they should not be combined across content domains. Nevertheless, the Choice Dilemma Questionnaire (Kogan & Wallach, Reference Kogan and Wallach1964), a commonly used scale, asks people for probability equivalents in twelve choice dilemmas from different domains of life, which are then combined into a single score that purportedly represents a person’s risk attitude. Despite its obvious deficiencies the scale is still in use, primarily for lack of better alternatives.

Some researchers have recently argued that risk attitude may be more usefully conceptualized in the risk-return framework of risky choice imported from finance, for example, the Capital Asset Pricing Model (Markowitz, Reference Markowitz1959) and its variants and generalizations (see Bell, Reference Bell1995; Jia & Dyer, Reference Jia and Dyer1997; Sarin & M. Weber, Reference Sarin and Weber1993). Psychological risk-return models treat perceived riskiness as a variable that can differ between individuals and as a function of content and context (Weber, Reference Weber1998). They decompose observed behavior (i.e., apparent risk taking) into an evaluation of benefits and risks as well as a trade-off between perceived benefits and perceived risks, with a person-specific willingness to trade off units of returns for units of risk (i.e., attitude towards perceived risk) that is assumed to be relatively stable across situations and domains (Weber & Hsee, Reference Weber and Hsee1998; Weber & Milliman, Reference Weber and Milliman1997). This provides for multiple ways in which characteristics of the decision maker and/of the situation can affect choices under risk. Apparent risk taking by the same person in two situations might differ, for example, because the decision maker perceives the risks and benefits to differ in magnitude in the two domains (e.g., in a recreational vs. a financial decision), while his or her attitude towards perceived risk is basically the same for both domains (Weber & Hsee, Reference Weber and Hsee1998; Weber & Milliman, Reference Weber and Milliman1997).

Empirical investigations have shown systematic individual, group, and cultural differences in perceptions of the riskiness of risky choice options (Bontempo, Bottom, & Weber, Reference Bontempo, Bottom and Weber1997; Slovic, Reference Slovic1998; Weber, Reference Weber1988). A smaller number of studies have also documented group differences in the perception of perceived benefits (e.g., Johnson, Wilke, & Weber, Reference Johnson, Wilke and Weber2004). After accounting for differences in the perception of the risk or returns of choice alternatives, however, people’s perceived-risk attitude - defined as their willingness to trade off units of perceived risk for units of perceived return - has shown considerable cross-group and cross-situational consistency (Weber, Reference Weber1998, Reference Weber2001). The domain-specificity of risk taking thus seems to arise primarily from differences in the perception of the risks (and possibly benefits) of choice alternatives in different content domains, while the trait (or true attitude towards risk) that shows consistency across situations lies in the evaluation of risk (as it is perceived) as something that is either desirable (i.e., worth giving up units of return for) or undesirable (i.e., something that needs to be compensated by units of return) (Weber, Reference Weber2001).

Decision domains in which respondents have shown different degrees of risk taking and different perceptions of risks and benefits include gambling, financial investing, business decisions, and personal decisions (MacCrimmon & Wehrung, Reference MacCrimmon and Wehrung1986, Reference MacCrimmon and Wehrung1990). Personal decisions can be broken down into smaller categories that differ in associated goals and concerns (Weber, Ames, & Blais, Reference Weber, Ames and Blais2005; Weber & Lindemann, in press), such as health/safety (e.g., seatbelt usage, smoking), social (e.g., confronting one’s coworkers or family members), and ethical decisions (e.g., cheating on an exam, terminating a comatose family member’s life support). One can expect to find differences in the perception of risks and benefits in these different domains of decisions because decisions in these domains score differently on the psychological risk dimensions (e.g., dread, familiarity, controllability) identified by Slovic, Fischhoff, and Lichtenstein (Reference Slovic, Fischhoff and Lichtenstein1986) that are known to affect risk perception. Affective reactions to risk in these different domains differ as the result of factors such as differential familiarity and controllability. Given recent evidence about the prominence of affective reactions in perceptions of risk (e.g., Slovic et al.’s affect heuristic, Reference Slovic, Finucane, Peters and MacGregor2002; Loewenstein et al.’s risk-as-feelings framework, Reference Loewenstein, Weber, Hsee and Welch2001), individual and domain differences in subjective perceptions of riskiness should not come as a surprise.

Based on these insights about the diverse set of determinants of decisions under risk, Weber, Blais, and Betz (Reference Weber, Blais and Betz2002) developed a risk-taking scale, the Domain-Specific Risk-Taking (DOSPERT) Scale, that allows researchers and practitioners to assess both conventional risk attitudes (defined as the reported level of risk taking) and perceived-risk attitudes (defined as the willingness to engage in a risky activity as a function of its perceived riskiness) in five commonly encountered content domains, i.e., ethical, financial (further decomposed into gambling and investment), health/safety, social, and recreational decisions.

The scale has been used and validated, and its factor structure replicated in a wide range of settings and populations (see https://decisionsciences.columbia.edu/dospert/index.htm). In addition to adequate internal-consistency reliability estimates, Weber et al. (Reference Weber, Blais and Betz2002) reported moderate test-retest reliability estimates and provided evidence for the factorial and convergent/discriminant validity of the scores with respect to constructs such as sensation seeking, dispositional risk taking, intolerance for ambiguity, and social desirability. Construct validity was also assessed via correlations with the results of a risky gambling task as well as with tests of gender differences.

Further evidence for the DOSPERT Scale’s construct validity was provided by Zuniga and Bouzas (Reference Zuniga and Bouzas2005), who found that scores on the health/safety and recreational risk-taking subscales significantly predicted estimated blood alcohol concentrations in Mexican high-school students. Also, Hanoch, Johnson, and Wilke (Reference Hanoch, Johnson and Wilke2006) used the DOSPERT Scale to show that individuals selected to exhibit high levels of risk taking in one content area (e.g., bungee jumpers taking recreational risks) can be quite risk averse in other risky domains (e.g., financial decisions).

A recent review of a large number of instruments that measure risk propensity in healthcare decisions (Harrison, Young, Butow, Salkeld, & Solomon, Reference Harrison, Young, Butow, Salkeld and Solomon2005) describes the DOSPERT Scale as one of three that are "relevant to a clinical environment as they directly measure risk propensity across a number of everyday situations, including the propensity to take health-related risks" (p. 10). The DOSPERT Scale is additionally commended for its simultaneous measurement of multiple risk constructs such as risk taking, risk perception, and perceived-risk attitude.

Weber et al. (Reference Weber, Blais and Betz2002) also used the DOSPERT Scale to provide evidence for the psychological risk-return model of risky choice. They found that, for a given participant, the level of apparent risk taking varied across risk domains, yet his (her) domain-specific levels of perceived risk and benefits together explained a significant proportion of this variability, and for the great majority of respondents, the relationship between apparent risk taking and risk perception across domains was negative or neutral, suggesting perceived-risk aversion. Johnson et al. (Reference Johnson, Wilke and Weber2004) obtained similar findings at the aggregate, or mean, level across respondents with a sample of young German adults.

To facilitate the use of the DOSPERT Scale in a broader range of applied settings, the current paper provides a revision of the original scale by Weber et al. (Reference Weber, Blais and Betz2002) that had been developed and validated for American college undergraduates. The revised scale is both shorter (i.e., 30 vs. 40 items) and applicable to respondents from a broader set of age groups, cultures, and educational levels. The revised DOSPERT Scale was administered to groups of English- and French-speaking North Americans and by doing do, we also contributed a French translation of the scale to the literature. Although the DOSPERT Scale has been translated into several languages (German, Italian, Dutch, and Spanish) and validated in cultures speaking these languages (e.g., Johnson et al., Reference Johnson, Wilke and Weber2004; Zuniga & Bouzas, Reference Zuniga and Bouzas2005), a French version was not available yet.

As explained above, to endorse a risk-return approach in assessing apparent risk taking presupposes the involvement of various determinants, that is, perceptions of benefits and risk, as well as a more stable component that represents a person’s propensity to favor (or shy away from) an option that he (she) perceives as being risky, which is referred to as a person’s perceived-risk attitude (Weber et al., Reference Weber, Blais and Betz2002; Johnson et al., Reference Johnson, Wilke and Weber2004). Unfortunately, in the present study, perceptions of benefits could not be collected due to time constraints, so the focus here is exclusively on apparent risk taking, perceived risk, and perceived-risk attitude.

More specifically, we hypothesize the following, derived primarily from the risk-return model of risky choice, including cross-cultural comparisons (Weber & Hsee, Reference Weber and Hsee1998) and the work of Weber et al. (Reference Weber, Blais and Betz2002): (1) there exists considerable variability in apparent risk taking within and between individuals; (2) more importantly, controlling for perceived risk at the within-individuals (i.e., domain) level results in a significant reduction in this variability and allows for within-individuals consistency in perceived-risk attitude; (3) individuals are perceived-risk averse or neutral across both cultures, even though risk perception and risk taking and possibly degree of perceived-risk aversion may differ between cultures.

While our goal is to replicate and extend the findings reported by Weber et al. (Reference Weber, Blais and Betz2002), we are taking a very different analytic approach by using multilevel modeling to investigate the relationship between apparent risk taking and perception. To our knowledge, it is the first time this technique is used in the context of psychological risk-return models of risky choice and in the study of the domain-specificity of apparent risk taking in general. One of the compelling reasons for using multilevel modeling is that it allows for the decomposition of the total variance in risk taking into various components, and for the quantification and explanation of both within- and between-individuals variation in apparent risk taking.

2 Method

2.1 Materials

The items of the original DOSPERT Scale had been selected based on a careful examination of the literature on risk-taking behaviors (e.g., Byrnes, Miller, & Schafer, Reference Byrnes, Miller and Schafer1999), including a review of existing risk-taking measures, in an attempt to cover a broad range of risks of different sorts that might be encountered by young adults in Western cultures or people around them (see Weber et al., Reference Weber, Blais and Betz2002, for more detail regarding the development of the scale).

To generate a short version of the scale with items that would be interpretable by a wider range of respondents in different demographic groups, the 40 items of the original scale were revised, utilizing feedback received from previous users of the scale in different cultures, and eight new items were added. For example, "Disagreeing with an authority figure on a major issue," now replaces "Disagreeing with your father on a major issue." Similarly, "Passing off somebody else’s work as your own," becomes a more general version of "Plagiarizing a term paper." The response scale was modified slightly by increasing the number of scale points from 5 to 7 and by labeling all of them instead of just the two endpoints in an effort to increase its psychometric quality (Visser, Krosnick, & Lavrakas, Reference Visser, Krosnick and Lavrakas2000).

Most respondent will not have found themselves in every one of the situations described by items of the scale or even have the training or background to find themselves in all situations. Nevertheless, they seem to interpret our instructions to "indicate the likelihood that you would engage in the described activity or behavior if you were to find yourself in that situation" as implying (in either a real or counterfactual fashion) that they should think of themselves as being in the situation in a way in which engaging or not engaging in the described behavior were both possible or feasible.

The new set of 48 items was administered to 372 English- and 394 French-speaking respondents. Each of the two groups was randomly split into two sub-groups. Data from one of the sub-groups in each culture were analyzed in an exploratory manner and resulted in a reduced number of items (Blais & Weber, Reference Blais and Weber2003; Blais, Montmarquette, & Weber, Reference Blais, Montmarquette and Weber2003). Confirmatory factor analyses were conducted on the remainder of the data to investigate the psychometric properties of the revised scale in North American English- and French-speaking adult populations and to establish whether the hypothesized measurement models fit the data within and across groups. Interested readers are referred to Blais and Weber (Reference Blais and Weber2006) for more detail.

The risk-taking scale of the 30-item version of the revised DOSPERT Scale evaluates behavioral intentions, that is, the likelihood with which respondents might engage in risky behaviors originating from five domains of life (ethical, financial, health/safety, social, and recreational risks) using a 7-point rating scale ranging from 1 (Extremely Unlikely) to 7 (Extremely Likely).Footnote 1 Sample items include "Having an affair with a married man/woman" (Ethical), "Investing 10% of your annual income in a new business venture" (Financial), "Engaging in unprotected sex" (Health/Safety), "Disagreeing with an authority figure on a major issue" (Social), and "Taking a weekend sky-diving class" (Recreational). Item ratings are added across all items of a given subscale to obtain subscale scores. Higher scores indicate greater risk taking in the domain of the subscale.

For simplicity sake, we refer to the respondents’ self-reported likelihood of engaging in risky behaviors as "risk taking." Similarly, their gut level assessment of the riskiness of these behaviors is alluded to as "risk perception." Finally, we refer to the language in which the participants completed the DOSPERT by using the label "group" (i.e., the English vs. the French DOSPERT group).

The risk-perception scale evaluates the respondents’ gut level assessment of how risky each behavior is on a 7-point rating scale ranging from 1 (Not at all) to 7 (Extremely Risky). Ratings are again added across all items of a given subscale to obtain subscale scores, with higher scores suggesting perceptions of greater risk in the domain of the subscale.

The French version of the DOSPERT Scale was developed for this study using the method of back-translation, where an instrument is translated from the source to the target language, is then independently translated back into the source language, and finally the two versions of the instrument are compared until all discrepancies in meaning are resolved (Brislin, Reference Brislin1970). Both the English and French versions of the complete risk-taking scale and the instructions and rating scale associated with the risk-perception scale are shown in the Appendix.

2.2 Participants and procedure

The group completing the DOSPERT Scale in English (i.e., the "English" group) consisted of 172 respondents; most of these participants were aged 22-35 and had completed a college degree. Sharing similar demographic characteristics, the group completing the DOSPERT Scale in French (i.e., the "French" group) consisted of 187 respondents residing in Quebec. A frequency distribution of ages and educational levels is provided in Table 1. Chi-square tests showed that the two groups did not differ significantly in gender, age, or educational levels.

Table 1: Demographic characteristics

The participants in the English group were contacted by advertisements on web bulletin boards and list servers; they completed the web-based survey for 8 USD. The participants in the French group were recruited via e-mail; they filled-out the computer-based survey in a laboratory, in groups of about 10-12, for 10 CAD. All of the participants provided demographic background information first and subsequently completed the scales; they performed the task in about 60-90 minutes.Footnote 2

3 Results

3.1 Overview of the data analytic technique

Given the nature of the data, that is, repeated measurements on individuals, multilevel modeling (Goldstein, Reference Goldstein1995) was utilized to distinguish within- from between-individuals variability in apparent risk taking. Multilevel models contain variables measured at different levels of a hierarchy that consist of lower-level observations nested within higher level(s). Examples include individuals nested within groups, employees within organizations, students within schools, or, like in the present study, repeated measurements within individuals. Kreft and De Leeuw (Reference Kreft and De Leeuw1998) provide an excellent introduction to multilevel modeling that includes a comparison with traditional regression models.

Multilevel modeling is a type of regression model particularly suitable for hierarchical data. In contrast to conventional OLS regression models, the equation defining the multilevel model contains more than one error term: one for each level of the hierarchy (e.g., within and between schools). The basic notion in multilevel modeling is that the outcome variable - located at the lowest, most detailed, level - has an individual as well as a group component, as do(es) the predictor variable(s).

In the current study, the first level of analysis is at the repeated-measures level, that is, respondents’ reported apparent risk taking, with five such measures per participant for a total of 1795 data points; the second level of analysis is at the level of the individual respondent (N=359). In the models reported below, apparent risk taking is the outcome variable, risk perception is a first-level, within-individuals, predictor, and group membership is a second-level, or between-individuals, predictor.

Three nested models are presented here and in Table 3 that specifically address the three hypotheses outlined previously. Model 1 is the baseline model and provides an estimate for the grand risk-taking mean across domains and individuals, as well as a baseline for the estimation of the variance components in comparisons with more complex models. In this model, risk taking at the individual level is expressed by the sum of the (a) grand risk-taking mean (called "Intercept" in Table 3), (b) within-individuals variation around the individual’s mean ("Within-individuals variance"), and (c) between-individuals variation around the grand mean ("Between-individuals variance/Intercept").

In Model 2, the first-level variable risk-perception is added to Model 1 as a predictor of risk taking.Footnote 3 The regression slope coefficient is specified as random to reflect between-individual differences in the relationship between risk taking and perception. Thus Model 2 also provides estimates of the mean regression slope across individuals (named "Risk perception" in Table 3) and of the between-individuals variation around it ("Between-individuals variance/Slope `Risk perception’ ").

Lastly, Model 3 adds the dichotomous group (called "Group" in Table 3) and group-by-perception ("Group-by-perception") variables for an explanation of the variability in the intercept and in the risk-perception slope among individuals.

The multilevel models were fit to the data using MLwiN 1.10.0007 (Rasbash, Browne, Ealy, Cameron, & Charlton, Reference Rasbash, Browne, Healy and Charlton2001). The likelihood-ratio (named "Deviance" in Table 3) test is used to evaluate the improvement in fit between the nested models (Snijders & Bosker, Reference Snijders and Bosker1999). Each multilevel parameter estimate is divided by its standard error (reported in parenthesis in the results; SE in Table 3) to assess its significance; the resulting value approximates a z-distribution (Snijders & Bosker, Reference Snijders and Bosker1999).

3.2 Descriptive statistics and group differences

The items were summed across their respective scales to obtain the scale scores and to compute the descriptive statistics shown in Table 2.Footnote 4 The internal consistency estimates (i.e., Cronbach’s alphas) associated with the 30-item English risk-taking scores ranged from .71 to .86, and those associated with the risk-perception scores, from .74 to .83. The scale intercorrelations varied from .08 to .60 and .19 to .66, for the risk-taking and risk-perception scores, respectively. Weber et al. (2002) reported comparable reliability estimates and scale intercorrelations with a sample of undergraduate students suggesting that the scores associated with the revised, shorter scale were, in this sample at least, as internally consistent as those of the original, longer scale.Footnote 5

Table 2: Descriptive statistics

Note: Minimum and maximum scores are 6 and 42, respectively. Means with different subscripts differ significantly at p < .005 (two-tailed).

A 2 X (5) (Group X Domain) mixed within-subjects factorial analysis of variance showed that the mean (i.e., across individuals) risk-perception level varied significantly between domains, F(3.66, 1307.73) = 360.53, The greatest mean level was found in the health/safety area (M = 28.15, SD = 5.94; or a value of 4.02 on the 7-point scale), whereas the lowest was found in the social domain (M = 17.01, SD = 5.93; or 2.43). Across domains, the participants in the French group reported a greater mean level of perceived risk than did their English counterparts, F(1, 357) = 17.06, Post-hoc tests revealed this difference to be significant in the financial domain (t(306.60) = 3.38, with an effect size of d = .36), health/safety domain (t(318.57) = 3.42, d = .36), and recreational domain (t(320.51) = 3.87, d = .41).Footnote 6

As shown by a similar analysis of variance, the mean risk-taking level also varied significantly between domains, F(3.63, 1295.21) = 352.70, , with the greatest mean level being in the social area (M = 32.58, SD = 5.69; or 4.65/7) and the lowest, in the ethical domain, (M = 16.92, SD = 6.59; or 2.42). Across domains, the groups’ mean risk-taking levels were significantly different, F(1, 357) = 7.16, , yet a significant domain-by-group interaction effect, F(3.63, 1295.21) = 2.74, , qualified this main effect. Indeed, post-hoc tests revealed that, in the social area, the respondents in the French group reported being more likely to engage in risky behaviors than did the English group respondents (note, however, the small magnitude of this difference). The converse was true in the other four domains, but this difference was significant only in the ethical, t(357) = 2.92, d = .31, and health/safety, t(357) = 2.88, d = .31, domains.

3.3 Multilevel analyses

The previous analyses of variance showed between-domains differences in mean risk taking and perception levels, yet, given that these analyses do not consider the between-domain differences at the individual level, we now turn to multilevel analyses to specifically address our hypotheses.

Test of the main hypothesis that there exists considerable variability in apparent risk taking within and between individuals. Model 1 yielded an estimate of 22.49 (0.27) for the grand mean intercept, corresponding to a value of 3.75 on the 7-point scale (see Table 3). In other words, across both domains and individuals, risk taking was relatively low, that is, below the rating scale mid-point of 4. The baseline model revealed, as predicted, a significant between-individuals variation around this mean risk taking level, yet a substantial proportion (87%) of the total variation in the mean degree of risk taking was found at the within-individuals level.Footnote 7 This illustrates that the respondents were more similar to others (i.e., the grand mean) than they were to themselves (i.e., their own individual mean) in their level of risk taking across domains.

Table 3: Summary of multilevel analyses

Note. The fixed effects represent the average intercept and slopes, as in conventional OLS regression analysis. The random effects signify the within-individual, intercept, and slope variances. For each predictor variable, we show its regression coefficient (B), the standard error of B, and the standardized regression coefficient (β).

* p > .05.

We tested the hypothesis that controlling for perceived risk at the within-individuals (i.e., domain) level results in a significant reduction in this variability and allows for within-individuals consistency in perceived-risk attitude. As shown by a significant deviance test, , model fit was much improved by adding the random "Risk perception" slope. Indeed, risk perception was, across domains and individuals, a significant predictor of risk taking, B 1 = −.87 (0.03), β = −.70, and its addition to the model resulted in a sizeable reduction (59%) in the within-individuals variation in risk taking, as expected.Footnote 8 The slope variance, .14 (.02), suggested that the individuals’ (i.e., across domains) slopes varied significantly about the mean (i.e., across domains and individuals) slope (see Figure 1 for a scatterplot of the individuals’ risk taking and perception values across domains). In other words - and not surprisingly - the relationship between risk taking and perception (i.e., perceived-risk attitude) differed significantly among individuals. Approximately 95% of the respondents had slopes between −0.12 to −1.62, which suggest that most of them were perceived-risk averse, albeit to various degrees.

In simple terms, at the individual level, the slope estimate shows how much an individual’s judged level of perceived risk decreases his (her) likelihood of engaging in risky behaviors across domains, reflected by a negative value. Essentially, it represents, for this individual, the impact of perceived risk on risk taking and gets multiplied with his (her) judged level of perceived risk associated with the behaviors. This impact of perceived risk on risk taking is what we refer to as perceived-risk attitude, and according to the risk-return model of risky choice, it is a stable individual characteristic.

Figure 1: The relationship between risk taking and risk perception at the individual level.

We now turn to the test of the hypothesis that individuals are perceived-risk averse or neutral across both cultures (even though risk perception and risk taking and possibly degree of perceived-risk aversion may differ between cultures). As shown by a significant deviance test, = 39.05, model fit was improved by adding the group variable predictor and the group-by-perception interaction variable. Group was not a significant predictor of risk taking, yet the interaction variable was, B 3 = −.32 (0.06), β = −.17. This significant group-by-perception interaction indicates that the effect of risk perception on risk taking was stronger (i.e., had a larger negative slope) for the French group than the English group, as confirmed by post-hoc simple slope comparisons (Aiken & West, Reference Aiken and West1991) and shown in Figure 2. In other words, completing the DOSPERT Scale in French, as opposed to English, was associated with a significantly stronger relationship between risk taking and perception, B = −1.04 (0.14), β = −.83, versus B = −.72 (0.04), β = −.58. The inclusion of these two variables in the model resulted in small reductions in between-individuals variations around the grand risk-taking mean (about 4%) and mean risk-perception slope (13%), suggesting that they explained some of the variation in risk taking among respondents.

Figure 2: The relationship between risk taking and risk perception as a function of group membership.

Because we previously found a tendency for the French group to report, on average, a significantly greater level of risk perception for some risk domains, one might conclude that the two groups differed in both the impact and perceived magnitude of risk at least in some domains. Post-hoc OLS multiple regression analyses were conducted that replicated Model 3 within each risk domain.Footnote 9 The results of these five regression analyses showed that the group-by-perception interaction was consistently significant (see Table 4). It thus appears that, in three out of the five risk domains, the French group perceived the magnitude of the risk involved to be significantly greater than did their English-speaking counterparts and gave it significantly greater weight as well. For the other behaviors, they only showed a significantly stronger impact of perceived risk on risk taking (i.e., had a more risk-averse perceived-risk attitude) than did the respondents completing the English DOSPERT Scale.

Table 4: Coefficients for the effect of (a) risk perception on risk taking for the French (left) and English (right) groups, and (b) the group-by-perception interaction variable

* (p > .05.)

4 Summary and conclusions

The paper provides a revised version of the Weber et al. (2002) DOSPERT Scale that is 25% shorter while remaining stable in terms of its psychometric properties. In addition, it consists of items that are applicable to respondents from a broader range of ages, cultures, and educational levels.

Despite the less-than-ideal internal consistency of some of its scores, the French DOSPERT Scale proves to be, overall, a valuable instrument to be used with French-speaking populations (see Blais & Weber, Reference Blais and Weber2006, for more detail). We might consider, in the future, retaining a few core items but also incorporate new items to the French DOSPERT Scale as a way to increase the reliability and validity of its scores. In any case, the scale could be of benefit to personality psychologists working with French populations in that it allows them to assess different components contributing to differences in apparent risk taking behavior (i.e., perceived risk, perceived-risk attitude, and possibly, perceived benefits) in five risk domains.

Our results replicate past research by documenting significant between-domains differences in the degree of apparent risk taking and perceived risk at the mean level of analysis. The multilevel modeling shows, more interestingly, that within-participants (i.e., individual-level) variation in risk taking across the five content domains of the scale was about seven times as large as between-participants variation.

The relationship between apparent risk taking and perception explained a considerable portion of the within-individuals variability in apparent risk taking. Across domains, respondents were, for the most part, perceived-risk averse or neutral, with some between-individuals variability in perceived-risk attitude. Finally, completing the DOSPERT Scale in French explained some of this variability among respondents, as it was associated with a significantly stronger (i.e., more negative) relationship between apparent risk taking and risk perception across domains.

In summary, we replicated and extended the findings reported by Weber et al. (2002), using a shorter and more broadly applicable scale and a more sophisticated analysis and modeling approach: (1) the level of apparent risk taking varied for a given participant across the five risk domains; (2) this within-individuals variability was, to a great extent, explained by a corresponding within-individuals variability in the degree of perceived risk; (3) for the great majority of respondents, the relationship between apparent risk taking and risk perception across domains was negative or neutral.

A potential concern with the results of this study is that they are inflated by the presence of common source variance. Because both apparent risk taking and perception were self-reported (using rating scales), one may question whether the relationship between these variables is spuriously inflated, yet this is a well-known limitation, common to all survey research. Similarly, like all such correlational results, the associations should not be interpreted as causal effects, despite our use of causal language (e.g., "predictor").

Responses and scores on subscales of the DOSPERT scale may well be related to other constructs. Our theoretical starting point, the risk-return framework, assumes that risk taking is a function of perceived risk (which is a function of both uncertainty and aversiveness of consequences) and perceived benefits, which can and do seem to vary between domains. With respect to the reasons for why perceptions of risk or benefit might differ between domains, we are agnostic and encourage additional work on that topic.Footnote 10 Previous work suggests that both differences in material and psychological consequences will be involved, leaving room for both consequentialist reasoning and affective reactions.

While self-reports of the likelihood of risk taking in hypothetical decision situations on subscales of the DOSPERT scale have been found to correlate with real-world risk taking in a variety of settings (Hanoch et al., 2005; Zuniga & Bouzas, Reference Zuniga and Bouzas2005), it will be interesting to see how such domain-specific self-reports of risk taking, risk and benefit perceptions, and inferred perceived-risk attitude compare to recent behavioral measures of risk taking and risk attitude, such as the Balloon Analogue Risk Task (BART) developed by Wallsten, Pleskac, and Lejuez (Reference Wallsten, Pleskac and Lejuez2005).

We urge care in the interpretation of differences in the two cultural groups, reported in this paper. We did not attempt to explain why the groups differed in risk perception, risk taking, and perceived-risk attitude when they did, as we felt such explanations were not warranted given the exploratory nature of the comparison. The two groups might differ simply because of methodological or procedural differences in the data collection process. For example, the French group completed the study in a more controlled laboratory setting, whereas the English group took part in an on-line, web-based, study.

Ultimately, the most important finding is that the two groups appeared to be perceived-risk averse or neutral, in line with the prediction derived from the risk-return framework of risky choice. More extensive and theory-based cross-cultural comparisons, such as the ones reported in Johnson et al. (Reference Johnson, Wilke and Weber2004) realized with a sample of Germans participants and the comparison between Chinese and American respondents reported by Weber and Hsee (1998) are necessary to establish whether individuals from different cultures and/or speaking different languages differ in apparent risk taking and its various components, and if so, why.

The final important contribution of this study is made by its data analytic approach. In addition to replicating and extending previous results by Weber et al. (2002), the multilevel analysis allowed us to differentiate between and differentially explain within-individuals (i.e., domain) and between-individuals variability in apparent risk taking. The fact that almost 90% of the total variance in risk taking existed at the domain level is striking, and a result that has not been quantified before, as past research has not separated these sources of variability in risk taking. This result lends additional support to the importance of studying domain-specific or situational influences on apparent risk taking. Person and situation effects can be modeled in an integrated multilevel framework, and future research should utilize such analyses in an effort to integrate situational explanations for within-individuals variability in apparent risk taking into the more complex personality trait approach advocated by Mischel and Shoda (Reference Mischel and Shoda1995).

A Appendix

A.1 Domain-Specific Risk-Taking (Adult) Scale—RT scale

For each of the following statements, please indicate the likelihood that you would engage in the described activity or behavior if you were to find yourself in that situation. Provide a rating from Extremely Unlikely to Extremely Likely, using the following scale: [Scales are shown in Table A.]

Table A: Scales used in DOSPERT

  1. 1. Admitting that your tastes are different from those of a friend. (S)

  2. 2. Going camping in the wilderness. (R)

  3. 3. Betting a day’s income at the horse races. (F)

  4. 4. Investing 10% of your annual income in a moderate growth mutual fund. (F)

  5. 5. Drinking heavily at a social function. (H/S)

  6. 6. Taking some questionable deductions on your income tax return. (E)

  7. 7. Disagreeing with an authority figure on a major issue. (S)

  8. 8. Betting a day’s income at a high-stake poker game. (F)

  9. 9. Having an affair with a married man/woman. (E)

  10. 10. Passing off somebody else’s work as your own. (E)

  11. 11. Going down a ski run that is beyond your ability. (R)

  12. 12. Investing 5% of your annual income in a very speculative stock. (F)

  13. 13. Going whitewater rafting at high water in the spring. (R)

  14. 14. Betting a day’s income on the outcome of a sporting event (F)

  15. 15. Engaging in unprotected sex. (H/S)

  16. 16. Revealing a friend’s secret to someone else. (E)

  17. 17. Driving a car without wearing a seat belt. (H/S)

  18. 18. Investing 10% of your annual income in a new business venture. (F)

  19. 19. Taking a skydiving class. (R)

  20. 20. Riding a motorcycle without a helmet. (H/S)

  21. 21. Choosing a career that you truly enjoy over a more secure one.

  22. 22. Speaking your mind about an unpopular issue in a meeting at work. (S)

  23. 23. Sunbathing without sunscreen. (H/S)

  24. 24. Bungee jumping off a tall bridge. (R)

  25. 25. Piloting a small plane. (R)

  26. 26. Walking home alone at night in an unsafe area of town. (H/S)

  27. 27. Moving to a city far away from your extended family. (S)

  28. 28. Starting a new career in your mid-thirties. (S)

  29. 29. Leaving your young children alone at home while running an errand. (E)

  30. 30. Not returning a wallet you found that contains $200. (E)

Note. E = Ethical, F = Financial, H/S = Health/Safety, R = Recreational, and S = Social.

A.2 Domain-Specific Risk-Taking (Adult) Scale - RP subscale

People often see some risk in situations that contain uncertainty about what the outcome or consequences will be and for which there is the possibility of negative consequences. However, riskiness is a very personal and intuitive notion, and we are interested in your gut level assessment of how risky each situation or behavior is.

For each of the following statements, please indicate how risky you perceive each situation. Provide a rating from Not at all Risky to Extremely Risky, using the following scale:

A.3 French Domain-Specific Risk-Taking (Adult) Scale - RT subscale

Pour chacune des phrases suivantes, veuillez indiquer la probabilité que vous preniez part à l’activité spécifiée ou que vous adoptiez le comportement spécifié si vous vous retrouviez dans la situation décrite.

Veuillez choisir l’une des possibilités qui vont d’Extrêmement peu probable à Extrêmement probable en vous servant de l’échelle suivante:

  1. 1. Avouer que vos goûts sont différents de ceux d’un ami.

  2. 2. Aller camper en pleine nature.

  3. 3. Parier une journée de salaire aux courses de chevaux.

  4. 4. Investir 10% de vos revenu annuels dans un fonds mutuel à croissance modérée.

  5. 5. Boire abondamment lors d’une activité sociale.

  6. 6. Tricher par un montant important dans votre déclaration d’impôt.

  7. 7. Être en désaccord avec un symbole d’autorité sur une question importante.

  8. 8. Parier une journée de salaire lors d’une partie de poker à enjeu important.

  9. 9. Avoir une aventure avec un homme ou une femme marié(e).

  10. 10. Présenter le travail de quelqu’un d’autre comme étant le vôtre.

  11. 11. Descendre une pente de ski exigeant une habileté plus grande que la vôtre.

  12. 12. Investir 5% de vos revenus annuels dans des titres très spéculatifs.

  13. 13. Faire de la descente en eau vive au printemps, quand le niveau de l’eau est élevé.

  14. 14. Parier une journée de salaire sur le résultat d’un événement sportif.

  15. 15. Avoir des relations sexuelles sans protection.

  16. 16. Révéler le secret d’un ami à un autre ami.

  17. 17. Conduire une voiture sans porter de ceinture de sécurité.

  18. 18. Investir 10% de vos revenus annuels dans une nouvelle entreprise.

  19. 19. Suivre un cours de parachutisme.

  20. 20. Conduire une motocyclette sans casque protecteur.

  21. 21. Choisir une carrière qui vous plaît vraiment plutôt qu’une carrière sécuritaire.

  22. 22. Dire votre opinion sur une question controversée lors d’une réunion au travail.

  23. 23. Vous faire bronzer sans écran solaire.

  24. 24. Effectuer un saut à l’élastique (? bungee ?) à partir d’un pont élevé.

  25. 25. Piloter un petit avion.

  26. 26. Rentrer chez vous à pied le soir dans un quartier peu sécuritaire.

  27. 27. Déménager dans une ville éloignée de votre famille.

  28. 28. Entreprendre une nouvelle carrière au cours de la mi-trentaine.

  29. 29. Laisser vos enfants seuls à la maison pendant que vous faites une course.

  30. 30. Ne pas retourner un portefeuille trouvé contenant 200$.

A.4 French Domain-Specific Risk-Taking (Adult) Scale — RP subscale

Les gens perçoivent souvent des risques dans les situations qui comportent de l’incertitude quant à leur conclusion ou à leurs conséquences et pour lesquelles il existe une possibilité de conséquences négatives. Cependant, le degré de risque est un concept très personnel et intuitif, et nous sommes intéressés par votre évaluation intuitive du niveau de risque de chacun des situations et des comportements suivants. Pour chacune des phrases suivantes, veuillez indiquer le niveau de risque que vous percevez pour chacune des situations.

Veuillez choisir l’une des possibilités qui vont de Pas du tout risqué à Extrêmement risqué en vous servant de l’échelle suivante :

Footnotes

*

These data were collected as part of research contract W7711-03-7868 forDefence Research and Development Canada Toronto. Portions of this work werepresented at the Annual Meeting of the Society for Judgment and DecisionMaking in Vancouver, British Columbia, Canada (November, 2003) and at theAnnual International Meeting of the Economic Science Association inMontreal, Québec, Canada (June 2005).

1 These data were collected as part of research contract W7711-03-7868 for Defence Research and Development Canada Toronto. Portions of this work were presented at the Annual Meeting of the Society for Judgment and Decision Making in Vancouver, British Columbia, Canada (November, 2003) and at the Annual International Meeting of the Economic Science Association in Montreal, Québec, Canada (June 2005). Correspondence concerning this article should be addressed to Dr. Ann-Renée Blais, Defence Research and Development Canada Toronto, 1133 Sheppard Ave. West, P.O. Box 2000, Toronto, Ontario, Canada M3M 3B9, Tel: 416-635-2000 ext. 3082, Fax: 416-635-2013, E-mail:

2 The six financial items can be split into three gambling and three investment items, resulting in narrower constructs.

3 In each group, half of the participants completed the risk-taking scale first, whereas the other half completed the risk-perception scale first; the other half of the participants did so in the opposite order. No order effects were found.

4 The risk-perception variable was centered around its grand mean in order for its zero value to be meaningful (i.e., the average risk-perception value across individuals; Kreft & De Leeuw, Reference Kreft and De Leeuw1998)

5 Univariate outliers were defined as z-scores greater than 3.29 (p < .001, two-tailed; Tabachnick & Fidell, Reference Tabachnick and Fidell1996) and were replaced with the next less extreme rating, as recommended by Kline (Reference Kline1998). For all of the scale items, skewness was smaller than 3.0 and kurtosis was smaller than 7.0, thus scores transformations were not required (Kline, Reference Kline1998). Finally, in order to maximize sample size, sample mean values were inserted whenever individual data points were missing (i.e., 1% of the individual data points; Cohen and C. Cohen, Reference Cohen and Cohen1983). The significance level was set at p < .05 (two-tailed), except when otherwise noted.

6 The internal consistency estimates associated with the 30-item French risk-taking scores, varied from .57 to .82 (see Table 2), while those associated with the risk-perception scores ranged from .62 to .68. Some of these values fall below the recommended .70 cut off point for research purposes which suggests that the scales may need additional work (Nunally, & Bernstein, Reference Nunally and Bernstein1994). The subscale intercorrelations ranged from .05 to .53 and .14 to .50.

7 The alpha level was set at p < .05/10 = .005 (two-tailed) to evaluate the significance of the post-hoc t-tests to correct for multiple tests. Cohen’s d is a measure of the effect size; values of 0.20, 0.50, and 0.80 tentatively define "small," "medium," and "large" effects, respectively (Cohen, Reference Cohen1988).

8 The variance at this level includes measurement error. Although the internal consistency reliability of the risk-taking score was acceptable (i.e., close to 1.00 across participants and .71 across domains), we induced measurement error (i.e., with variance ranging from 0.10 to 1.00) in the score to investigate its potential effect on the within-individuals variance estimate (i.e., 72.80 in Table 3) and re-ran Model 1. The resulting within-individuals variance estimates ranged from 72.02 to 72.93, suggesting that bias due to measurement error was indeed fairly small.

9 For each predictor variable, we show its regression coefficient (B), the standard error of B in parentheses, and the standardized regression coefficient (β).

10 The alpha level was set at p < .10/15 = .0067 (two-tailed) to evaluate the significance of the post-hoc multiple regression analyses to correct for multiple tests. The familywise significance level was set at p < .10, because the power required to detect interaction effects in multiple regression analysis is generally low, due to reductions in parameter reliability (Aiken & West, Reference Aiken and West1991).

11 In Weber et al. (2002), we found, for example, that the impression management subscale score of the Paulhus’ (1988) social desirability scale was significantly correlated with the Ethics and Health/Safety Risk-Behavior subscales, rs = −0.51 and −0.34, respectively. That is, the desire to present oneself in a positive way was associated with lower reported likelihoods to engage in risky ethics and health/safety behaviors.

12 We modified this item by replacing "prestigious" by "secure" in order to reflect the trade-off between enjoyment and security. We would like to thank an anonymous reviewer for this suggestion.

References

Allport, F. H., & Allport, G. W. (1921). Personality traits: Their classification and measurement. Journal of Abnormal and Social Psychology, 16, 6-40.CrossRefGoogle Scholar
Aiken, L. S., & West, S. G. (1991). Multiple regression: Testing and interpreting interactions. Newbury Park, CA: Sage.Google Scholar
Bell, D. E. (1995). Risk, return, and utility. Management Science, 41, 23-30.CrossRefGoogle Scholar
Blais, A.-R., Montmarquette, C., & Weber, E. U. (2003, November). French translation of the Domain-Specific Risk-Taking (DOSPERT) Scale. Poster session presented at the annual meeting of the Society for Judgment and Decision Making, Vancouver, Canada.Google Scholar
Blais, A.-R., & Weber, E. U. (2003, November). A Domain-Specific Risk-Taking (DOSPERT) Scale Continued. Poster session presented at the annual meeting of the Society for Judgment and Decision Making, Vancouver, Canada.Google Scholar
Blais, A.-R., & Weber, E. U. (2006). Testing invariance in risk taking: A comparison between Anglophone and Francophone groups. Working paper, Columbia University. Retrieved July 17, 2006, from https://decisionsciences.columbia.edu/dospert/index.htm.Google Scholar
Bontempo, R. N., Bottom, W. P., & Weber, E. U. (1997). Crosscultural differences in risk perception: A model-based approach. Risk Analysis, 17, 479-488.CrossRefGoogle Scholar
Brislin, R. W. (1970). Back-translation for cross-cultural research. Journal of Cross-Cultural Psychology, 1, 185-216.CrossRefGoogle Scholar
Bromiley, P., & Curley, S. (1992). Individual differences in risk taking. In. J. F. Yates (Ed.), Risk-taking behavior, pp. 87-132. New York: John Wiley.Google Scholar
Byrnes, J. P., Miller, D. C., Schafer, W. D. (1999). Gender differences in risk taking: A meta-analysis. Psychological Bulletin, 125, 367-383.CrossRefGoogle Scholar
Cohen, J. (1988). Statistical power analysis for the behavioral sciences (2nd ed.). Hillsdale, NJ: Earlbaum.Google Scholar
Cohen, J., & Cohen, P. (1983). Applied multiple regression/correlation analysis for the behavioral sciences (2nd ed.). Hillsdale, NJ: Erlbaum.Google Scholar
Columbia University, Center for Decision Sciences. (n.d.). The DOSPERT Scale in various languages. Retrieved June 8, 2006, from https://decisionsciences.columbia.edu/dospert/index.htm.Google Scholar
Eysenck, H. J., & Eysenck, M. W. (1985). Personality and individual differences: A natural science approach. New York: Plenum.CrossRefGoogle Scholar
Goldstein, H. (1995). Multilevel Statistical Models (2nd ed.). New York: John Wiley & Sons.Google Scholar
Hanoch, Y., Johnson, J.G., & Wilke, A. (2006). Domain specificity in experimental measures and participant recruitment. Psychological Science, 17, 300-304.CrossRefGoogle ScholarPubMed
Harrison, J. D., Young, J. M., Butow, P., Salkeld, G., & Solomon, M. J. (2005). Is it worth the risk? A systematic review of instruments that measure risk propensity for use in the health setting. Social Science & Medicine, 60, 1385-1396.CrossRefGoogle ScholarPubMed
Jia, J., & Dyer, J. S. (1997). Risk-value theory. Working Paper 94/95-3-4, Graduate School of Business, University of Texas at Austin.Google Scholar
Johnson, J. G., Wilke, A., & Weber, E. U. (2004). Beyond a trait view of risk-taking: A domain-specific scale measuring risk perceptions, expected benefits, and perceived-risk attitude in German-speaking populations. Polish Psychological Bulletin, 35, 153-172.Google Scholar
Kahneman, D., & Tversky, A., (1979). Prospect theory: An analysis of decision under risk. Econometrica, 47, 263-291.Google Scholar
Kline, R. B. (1998). Principles and practice of structural equation modeling. New York: The Guilford Press.Google Scholar
Kogan, N., & Wallach, M. A. (1964). Risk-taking: A study in cognition and personality. New York: Holt.Google Scholar
Kreft, I., & De Leeuw, J. (1998). Introducing Multilevel Modeling. London: Sage.CrossRefGoogle Scholar
Loewenstein, G. F., Weber, E. U., Hsee, C. K., Welch, E. (2001). Risk as feelings. Psychological Bulletin, 127, 267-286.CrossRefGoogle ScholarPubMed
MacCrimmon, K. R., & Wehrung, D. A. (1986). Taking risks: The management of uncertainty. New York: Free Press.Google Scholar
MacCrimmon, K. R., & Wehrung, D. A. (1990). Characteristics of risk taking executives. Management Science, 36, 422-435.CrossRefGoogle Scholar
Markowitz, H. M. (1959). Portfolio selection. New York: Wiley.CrossRefGoogle Scholar
Mischel, W., & Shoda, Y. (1995). A cognitive-affective system theory of personality: Reconceptualizing situations, dispositions, dynamics, and invariance in personality structure. Psychological Review, 102, 246-268.CrossRefGoogle ScholarPubMed
Nunally, J. C., & Bernstein, I. H. (1994). Psychometric Theory (3rd ed.). New York: McGraw-Hill.Google Scholar
Pratt, J. W., (1964). Risk aversion in the small and in the large. Econometrica, 32, 122-136.CrossRefGoogle Scholar
Rasbash, J., Browne, W., Healy, M. Cameron, B. & Charlton, C. (2001). The MlwiN software Package version 1.10.0007. London: Institute of Education.Google Scholar
Sarin, R. K., & Weber, M. (1993). Risk-value models. European Journal of Operations Research, 70, 135-149.CrossRefGoogle Scholar
Schoemaker, P. J. H. (1990). Are riskpreferences related across payoff domains and response modes? Management Science, 36, 1451-1463.CrossRefGoogle Scholar
Slovic, P. (1964). Assessment of risk taking behavior. Psychological Bulletin, 61, 330-333.CrossRefGoogle ScholarPubMed
Slovic, P. (1998). Trust, emotion, sex, politics, and science: Surveying the risk-assessment battlefield. In M. H. Bazerman, D. M. Messck, A. E. Tenbrunsel, & K. A. Wade-Benzoni (Eds.) Environment, ethics and behavior: The psychology of environmental valuation and degradation, pp. 277-313. San Francisco: New Lexington Press.Google Scholar
Slovic, P., Finucane, M., Peters, E. & MacGregor, D. G. (2002). The affect heuristic. In T. Gilovich, D. Griffin, & D. Kahneman, (Eds.), Heuristics and Biases: The Psychology of Intuitive Judgment, pp. 397-420. New York: Cambridge University Press.CrossRefGoogle Scholar
Slovic, P., Fischhoff, B., & Lichtenstein, S. (1986). The psychometric study of risk perception. In V. T. Covello, J. Menkes, & J. Mumpower (Eds.), Risk Evaluation and Management (pp. 3-24). New York: Plenum Press.CrossRefGoogle Scholar
Snijders, T. A. B., & Bosker, R. J. (1999). Multilevel Analysis: An Introduction to Basic and Advanced Multilevel Modeling. London: Sage.Google Scholar
Tabachnick, B. G., & Fidell, L. S. (1996). Using multivariate statistics (3rd ed.). New York: Harper Collins.Google Scholar
Tversky, A., & Kahneman, D. (1992). Advances in prospect theory: Cumulative representation of uncertainty. Journal of Risk and Uncertainty, 5, 297-323.CrossRefGoogle Scholar
Visser, P. S., Krosnick, J. A., & Lavrakas, P. (2000). Survey research. In H. T. Reis & C. M. Judd (Eds.), Handbook of research methods in social psychology, pp. 223-252. New York: Cambridge University Press.Google Scholar
Wallsten, T. S., Pleskac, T. J., Lejuez, C. W., (2005). Modeling a sequential risk-taking task. Psychological Review, 112, 862-880.CrossRefGoogle ScholarPubMed
Weber, E.a, 6 U. (1988). A descriptive measure of risk. Acta Psychologic 9, 185-203.CrossRefGoogle Scholar
Weber, E. U. (1998). Who’s afraid of a little risk? New evidence for general risk aversion. In J. Shanteau, B. A. Mellers, & D. Schum (Eds.), Decision Research from Bayesian Approaches to Normative Systems: Reflections on the Contributions of Ward Edwards, pp. 53-64. Norwell, MA: Kluwer.Google Scholar
Weber, E. U. (2001). Personality and risk taking. In N. J. Smelser & P. B. Baltes (Eds.), International encyclopedia of the social and behavioral sciences (pp. 11274-11276). Oxford, UK: Elsevier.CrossRefGoogle Scholar
Weber, E. U., Ames, D., & Blais, A.-R. (2005). How do I choose thee? Let me count the ways: A textual analysis of similarities and differences in modes of decision making in the USA and China. Management and Organization Review, 1, 87-118.CrossRefGoogle Scholar
Weber, E. U., Blais, A.-R., Betz, E. (2002). A Domain-specific risk-attitude scale: Measuring risk perceptions and risk behaviors. Journal of Behavioral Decision Making, 15, 263-290.CrossRefGoogle Scholar
Weber, E. U., & Hsee, C. K. (1998). Cross-cultural differences in risk perception but cross-cultural similarities in attitudes towards risk. Management Science, 44, 1205-1217.CrossRefGoogle Scholar
Weber, E. U. & Lindemann, P G.. (in press). From intuition to analysis: Making decisions with our head, our heart, or by the book. In H. Plessner, C. Betsch & T. Betsch (Eds.), Intuition in judgment and decision making. Mahwah, NJ: Lawrence Erlbaum Associates.Google Scholar
Weber, E. U., & Milliman, R. (1997). Perceived risk attitudes: Relating risk perception to risky choice. Management Science, 43, 122-143.CrossRefGoogle Scholar
Zuniga, A., & Bouzas, A. (2005). Actitud hacia el riesgo y consume de alcohol de los adolescented. Working paper. Retrieved July 17, 2006, from https://decisionsciences.columbia.edu/dospert/index.htm.Google Scholar
Figure 0

Table 1: Demographic characteristics

Figure 1

Table 2: Descriptive statistics

Figure 2

Table 3: Summary of multilevel analyses

Figure 3

Figure 1: The relationship between risk taking and risk perception at the individual level.

Figure 4

Figure 2: The relationship between risk taking and risk perception as a function of group membership.

Figure 5

Table 4: Coefficients for the effect of (a) risk perception on risk taking for the French (left) and English (right) groups, and (b) the group-by-perception interaction variable

Figure 6

Table A: Scales used in DOSPERT