The causal effect of professional sports on amateur sport participation--an instrumental variable approach.
Mutter, Felix ; Pawlowski, Tim
Introduction
In general, a better understanding of factors influencing amateur
sport participation is of great importance. Amateur sport participation
is associated with better physical (e.g., Humphreys, MacLeod, &
Ruseski, 2011) and mental health (e.g., Downward & Rascuite, 2011;
Pawlowski, Downward, & Rascuite, 2011; Rascuite & Downward,
2010). It contributes significantly to revenues of various industries
(e.g., Pawlowski & Breuer, 2012b; Preuss, Alfs, & Ahlert, 2012)
as well as tax income of public authorities (Pawlowski & Breuer,
2012a).
In this regard, an increasing number of studies have recently
focused on analysing the so-called demonstration effect of professional
sports (Weed, 2009), i.e., the possible effect of professional sports on
amateur sport participation. These studies could detect that
professional sports stimuli, such as star athletes (Schmidt &
Hogele, 2011; Tribe Group, 2009), the success of national athletes
(Hallmann, Breuer, & Kuhnreich, 2013; IpsosMORI, 2009), major
sporting events (UK SPORT, 2011; Weed, Coren, & Fiore, 2009; Weed et
al., 2012), or sport-related media behavior (Lines, 2007) motivates
people to participate in sport. However, stated motivation and actual
behavior are two distinct events (Heckhausen & Gollwitzer, 1987). A
stated motivation is not subject to a budget and time constraint.
Furthermore, estimating professional sports stimuli on the aggregate
level, such as success of national athletes, neglects a possible source
of heterogeneity between individuals that is connected to their
perceived relevance of success (Pawlowski, Downward, & Rasciute,
2013).
Therefore, this paper offers two contributions: First, it is
investigated whether professional sports stimuli indeed transfer into
observable behavior, i.e., an increase in sports participation. Second,
instead of making use of an aggregated professional sports stimulus,
such as success of national athletes, a comprehensive measure is
employed based on the concept of psychological involvement (Zaichkowsky,
1985) which expresses the personal relevance of professional sports to
an individual and therefore allows for heterogeneity between individuals
as described before.
The data used to analyze this effect was collected in a survey
amongst N=863 triathletes in Germany. (1) Since (for instance) the
individually perceived relevance of professional triathlon could
increase with an extensive participation in amateur triathlon, a
potential reverse causality bias aggravates the estimation of the causal
effect of interest. To deal with this endogeneity issue, an instrumental
variable approach is employed (Angrist & Krueger, 2001). Different
test statistics provide evidence for the relevance and validity of the
chosen instruments.
As indicated by the results, the individually perceived relevance
of professional triathlon indeed causes amateur participation in our
setting. According to the 2SLS results, amateur triathletes who place
more importance on professional triathlon participate between 3% and 33%
more in triathlons themselves. Therefore, this paper provides further
evidence on the existence of a trickle-down effect in sports.
The paper is organized in the following way. Section 2 outlines the
theoretical framework of the study and provides an overview of the
related literature. In section 3, the identification strategy is
presented in detail. Section 4 outlines the data collection and the
empirical model specifications. The descriptive and analytic results are
considered in Section 5. Section 6 concludes with a discussion of the
results, their implications, and their limitations.
Background
Theoretical framework
From a neoclassical perspective, studies that have analyzed the
demand for sport participation have mainly drawn on Becker's (1965)
theory of household production (Dawson & Downward, 2013; Downward
& Riordan, 2007) and on Cawley's (2004) SLOTH framework
(Garcia, Lera-Lopez, & Surarez, 2011; Humphreys & Ruseski,
2011). Becker (1965) introduced time as an important budget constraint
for the production of non-market goods, like sport participation. Cawley
(2004) extended this framework and assumed that people allocate their
time to sleeping, working and leisure activities in order to maximize
their utility subject to a budget constraint including time, money and
biology.
Other studies have taken a heterodox perspective on the decision to
participate in sport (Downward, 2007). Approaches from social science,
e.g., psychology (Scitovsky, 1976) or sociology (Bourdieu, 1988), have
been incorporated in economic analyzes to explain sporting behavior on
the basis of differing preferences. The framework of sporting role
models is in line with this heterodox perspective. Incorporated into the
economic demand analysis for participation in sports, it explains why
the individually perceived relevance of professional sports might
influence the demand for amateur sport participation (Mutter &
Pawlowski, 2013). (2) The framework is based upon a modern understanding
of role models, introduced by both Jung (1986) and Gibson (2003, 2004).
Based on their exceptional status and their media presence,
professional athletes could be characterized as role models (Bandura,
1986). In contrast to the related concepts of mentors and behavioral
models, professional athletes can be categorized as distant or symbolic
models because, most of the time, no personal relationship between the
model and the observer is required (Gibson, 2004).
Role models can have a motivational effect on behavioral tendencies
(Gibson, 2003, 2004; Jung, 1986). In the sports context, they could
potentially attract non- participants to sport, reactivate former
participants, or motivate active participants to participate more (Weed,
2009). According to Lyle (2009), the complexity of motivations and
barriers to sport participation heavily aggravates a role model's
influence on non- participants. Indeed, Mutter and Pawlowski (2013)
found that professional sports role models, i.e., the German national
soccer team, attracted only few non- participants to soccer.
Nevertheless, the theoretical framework of role models suggests that a
motivational effect is strongest on already existing behavioral
tendencies (Gibson, 2004; Jung, 1986). Indeed, sporting role models were
found to motivate active participants to increase their participation
(Mutter & Pawlowski, 2013). Similar results were obtained in various
studies and reports (Breuer & Hallmann, 2011; IpsosMORI, 2009; UK
SPORT, 2011; Weed, 2009).
Two conditions determine the motivational effect of sporting role
models (Mutter & Pawlowski, 2013). (1) Availability of professional
athletes is considered to be a necessary condition. Because of the
missing personal relationship, the stimuli of symbolic role models
appear more distant and on a less regular basis (Bandura, 1986).
Therefore, to ensure availability, professional athletes have to be
present via the media or as participants in live events. (2)
Furthermore, the perceived proximity of an observer to a model
positively influences the model's motivational effect (Mutter &
Pawlowski, 2013). This proximity is based on demographic dimensions,
such as the nationality, the age or the gender. A German professional
tennis player, for example, is most likely to motivate a German amateur
tennis player in his or her sporting activity. Furthermore, proximity
could be based on the perceived capability of an individual to replicate
the observed behavior (Lockwood & Kunda, 1997).
Literature review
Previous studies relevant to this paper have analyzed either the
effect of national sporting success or hosting major sporting events on
sport participation rates or sports club membership figures. These
studies offer mixed findings. For instance, while the membership figures
of curling in Scotland increased after the Olympic success of the
British women in 2002 (Sportscotland, 2004), the membership figures of
tennis in Germany decreased as a result of the successful era of
national athletes from 1986 to 1996 (Feddersen, Jacobsen, & Meannig,
2009). Looking at general levels of sports participation, Humphreys,
Maresova, and Ruseski (2012) found a negative correlation between past
Olympic success and mass sport participation in a country. Based on the
Olympic results of Australia between 1976 and 1996, Hogan and Norton
(2000) identified no correlation between national sporting achievements
and sedentariness rates of the Australian population. Furthermore,
Frawley and Cush (2011) found an increase in the membership figures of
organized rugby in Australia after the hosting of the 2003 Rugby World
Cup. Based on a literature review, McCartney et al. (2010) could neither
support nor refute the expectations about health benefits for the host
population of major sporting events.
Other studies have previously analyzed variables of professional
sports as possible determinants of the time spent in physical activity.
For instance, following Dawson and Downward (2011, 2013) and Downward,
Lera-Lopez, and Rasciute (2011), watching sports on television has a
positive effect on the frequency of sport participation. Analysing the
DCMS Taking Part Survey, Downward and Dawson (2011) revealed that people
who watched sports on television (live and non-live) reported 67 minutes
more sport participation per week. In addition, they showed that
attendees of a live sport event in the four weeks before the interview
reported 44 minutes more weekly sport participation.
However, the causality of these findings is hard to interpret
because the studies have not accounted for the potential endogeneity of
the analyzed professional sports stimuli. If the time spent on sport
participation influences the probability of attending events or watching
sport on television, a reverse causality bias could occur. Both
Lera-Lopez, Ollo-Lopez, and Rapun-Garate (2012) and Thrane (2001) found
such an effect. According to their results, the frequency of sport
participation positively affects the probability of attending sporting
events as a spectator. Obviously, professional sports stimuli cannot be
both endogenous and exogenous, so the causality of the revealed effects
remains unclear.
Therefore, it is the objective of this paper to analyze the causal
effect of the individually perceived relevance of professional sports on
the time spent in amateur sport participation. To do so, an
identification strategy is developed as explained in the following.
Identification
A reverse causality bias in our setting might be triggered through
three channels: (1) More amateur participation could increase a superior
affinity to sport in general. According to Kenyon and McPherson (1973),
such a superior affinity can influence both professional sports interest
and active sport participation. Similarly, Dawson and Downward (2011,
2013) concluded that a latent form of sport consumption influences both
manifestations: spectatorship of professional sports and amateur
participation. (2) More amateur participation leaves less time for
professional sports activities, such as following events on the media.
Consequently, the available net time for leisure activities could
influence both variables simultaneously. Amateur sport participation and
professional sports activities could then be interpreted as substitution
goods (Lera-Lopez et al., 2012). (3) More amateur participation could
increase the perceived proximity of an amateur to professional sports.
On average, more participation leads to higher skills and an attendance
of amateur competitions of higher quality. According to the framework of
sporting role models, the perceived proximity to a role model increases
the model's motivational effect (Mutter & Pawlowski, 2013).
As indicated by these theoretical considerations, a simple OLS
estimation of amateur sport participation on the perceived relevance of
professional sports and controls could either overestimate (latent sport
affinity; proximity) or underestimate (available net time) the causal
effect of interest. To avoid such estimation bias, the use of
(exogenous) instrumental variables is an acknowledged method (Angrist
& Krueger, 2001). In this study we make use of two distinct
instruments. The choice of these instruments as well as the underlying
assumptions are discussed in the following paragraphs.
The first instrument is related to the residence of the surveyed
amateurs. Its relevance, i.e., its partial effect on the endogenous
regressor, is derived from the framework of sporting role models.
Availability of a model is a necessary condition for its effectiveness.
However, compared with other sports, the nationwide media coverage of
triathlon in Germany is not very distinct (Ruhle, 2003; Zubayr &
Gerhard, 2008). Nevertheless, there are professional triathlon events
located in Germany, notably in the cities of Hamburg and Roth. An annual
event of the ITU World Triathlon Series, held in the city of Hamburg
since 2007 (International Triathlon Union [ITU], 2012). In addition,
since 2002, one traditional long-distance triathlon of the
"Challenge Family" has been held in the city of Roth
(Challenge Roth, 2012). A large number of visitors are inhabitants of
the city or region in which the event takes place (Preufi, Seguin, &
O Reilly, 2007; Siegfried & Zimbalist, 2000). Therefore, the
probability of attending a professional triathlon event as a spectator
is higher the closer it is located to the residence. According to Zanger
and Schweitzer (2004), professional triathlon events are fascinating and
deliver experiences of movement and fitness. In addition, before, during
and after the event, it is present in the regional and local media,
providing the availability of professional triathlon for residents.
Consequently, it is assumed that the residence of amateur triathletes
near one of these two events positively influences their perceived
relevance of professional triathlon on average.
In general, an instrument must be exogenous, i.e., independent of
potential outcomes of the dependent variable. For the most part, the
decision of the residence was determined before the decision about the
time spent on amateur triathlon participation. (3) Temporal order of the
determination of variables is often a good hint for exogeneity (Angrist
& Pischke, 2009). In addition, residence should not influence the
time spent on amateur participation, other than by influencing the
relevance of professional triathlon. Previous studies have shown that
the availability of sport infrastructure influences participation in
physical activity (Huang & Humphreys, 2012). Consequently, living in
the city with over one million inhabitants, such as Hamburg, could
influence the decision to participate. To deal with this issue, the
estimated models also control for the degree of urbanisation. Finally,
it could be argued that people living near Hamburg and Roth have more
opportunities to participate in amateur triathlon because the
professional events in Hamburg and Roth are surrounded by additional
races for amateurs. "Proximity to home" is the main
determinant for the choice of races in which to participate among
amateur triathletes (Tribe Group, 2009). However, according to the
German Triathlon Union (DTU, 2012), over 1000 amateur events for
triathletes are organized in Germany every year. Because these events
are well distributed over Germany (Triathlon-Deutschland, 2012), it is
assumed that Hamburg and Roth do not provide extraordinary opportunity
to become engaged in amateur triathlon.
The second instrument is derived from a measure of previously
stated relevance of professional triathlon. The instrument is a variable
that describes whether professional triathlon, for example through event
spectatorship or the success of national athletes, had influenced the
decision of the amateur triathletes to initiate their participation.
According to Kenyon and McPherson (1973), the attitude towards
professional sports is a persistent one. Therefore, a partial effect of
previously stated relevance on contemporaneous relevance is assumed.
It is assumed that this instrument is exogenous. Again, the
temporal order of decisions is crucial. The reverse causality bias
develops through the amateur participation. Consequently, any decision
that was taken before the participation cannot be affected by that
participation.
Method
Data
Prior empirical evidence has suggested that professional sports
stimuli mostly affect active participants (Mutter & Pawlowski,
2013). Moreover, the framework of sporting role models suggests that
relevance of professional triathlon most likely affects other active
triathlon participants. Consequently, German amateur triathletes were
surveyed. Because no systematic data of the approximately 150,000 German
triathletes were available, a random sampling was not feasible. In a
cluster sampling approach, a constructed and pretested questionnaire was
mailed to the 16 regional triathlon associations in Germany, who were
asked to forward the questionnaire to their members. Between July and
September 2012, quantitative data on N=863 German amateur triathletes
were collected online. It is crucial that the amateur triathletes do not
participate in the professional events of Hamburg and Roth themselves.
This would damage the validity of the instrument related to the
residence of the amateur triathletes. To separate distinctly between
professional and amateur athletes, the skill level of the triathletes
was surveyed. Respondents that reported a high skill level, i.e.,
"national level" and "near national level," were
excluded from further analysis. This leaves a final sample of n=759
amateur triathletes.
The dependent variable of this study is the frequency of triathlon
participation. It was surveyed by the total hours of triathlon activity
per week, i.e., the time for training and races [AMATEUR_ ACTIVITY].
The regressor of primary interest is the individually perceived
relevance of professional triathlon, which was measured with the Sports
Involvement Inventory (SII), a scale developed by Shank and Beasley
(1998). The SII is an eight-item semantic differential with seven
response categories, which is displayed in Table 1. It was designed to
capture an individual's personal relevance, i.e., the involvement,
of a sports object and it has already been employed in other studies
(Ko, Kim, & Claussen, 2008; Tokuyama & Greenwell, 2011). Adapted
to triathlon, each respondent had to assess professional triathlon on
eight item pairs. After recoding, this leads to a quasi-metric score
[PRO_RELEVANCE] that displays the individually perceived relevance of
professional triathlon.
For the first instrument, two binary variables were generated based
on the postal codes indicating whether an individual lives within 60
minutes' travel time of the city centre of Hamburg or the city
centre of Roth. Combining these, the variable [HAMB_ROTH] indicated
whether a person lives within 60 minutes' travel time of Hamburg or
Roth. For the second instrument, the respondents were asked on a binary
variable whether professional triathlon had influenced their decision to
start their triathlon activity [START].
For control purposes, the age [AGE], gender [FEMI], marital status
[MARRIED], occupational status [FULLTIME], and the size of the
households [FAMILY] were surveyed. In addition, the degree of
urbanisation [URBAN] and the years of amateur triathlon experience
[EXPER] were surveyed. Table 2 summarizes all variables.
Model specification and estimation A standard linear model is
considered:
In y = [alpha] + yd + [beta]x + [epsilon], (1)
with logarithmized hours of triathlon activity as dependent
variable, standardized relevance of professional triathlon as the
regressor of primary interest, a K x 1 vector of observables, and an
error term e. The dependent variable was included in logarithmic form
because it is assumed that [PRO_RELEVANCE] influences [AMATEUR_ACTIVITY]
non-linearly: amateur triathletes with higher time investments were
assumed to receive a stronger motivational effect of professional
triathlon (Mutter & Pawlowski, 2013). The transformation is
straightforward because the variable takes on only positive values above
zero (Wooldridge, 2010).
In line with prior studies that have modeled the frequency of sport
participation, the observables contained gender, age and age squared,
experience and experience squared, marital status, size of household,
occupational status, and degree of urbanization.
Two different models were estimated. Model 1 is based on an OLS
estimation with the potentially endogenous regressor [PRO_RELEVANCE].
Model 2 is based on a 2SLS estimation with the residence of the amateur
triathletes [HAMB_ROTH] and their previously stated relevance of
professional triathlon [START] as instruments for regressor
[PRO_RELEVANCE]. Instead of using both variables as an instrument each,
the 2SLS estimator builds a linear combination of both variables, which
usually obtains the most efficient results (Angrist & Krueger,
2001). To test the relevance of both instruments, the first stage
results and F-statics of excluded instruments were reported. In
addition, a Hansen J Test was employed to test the overidentification
restriction. All estimations were executed with the STATA command ivreg2
(Baum, Schaffer, & Stillman, 2007). The reported standard errors are
robust to heteroscasticity, which is likely in cross-section data.
Results
Table 3 shows the descriptive statistics of the total sample and
conditional on the two instruments.
Available data for selected sample characteristics from Wicker,
Prinz, and Weimar (2012) who surveyed German triathletes in 2010 and
2011, has similar mean values: one quarter of the censored sample is
female (21.7%), and the average triathlete is approximately 38 years old
(36.69). (4) On average, the respondents have participated in triathlon
for 7.44 years (7.37) and spend 9.48 hours per week participating in
triathlon (9.14). Forty-five percent are married, 71% work fulltime, and
the average household consists of approximately three persons. The
distribution of the degree of urbanisation is rather u-shaped, with more
amateurs living in cities with under 20,000 inhabitants and over 200,000
inhabitants, respectively. Fifteen percent of the triathletes live
within 60 minutes' travel time of the city centres of Hamburg or
Roth, and approximately 18% report an influence of professional
triathlon on their decision to initially start their own amateur
triathlon activity.
With 5.57 scale points (on a scale from 1 to 7), the average
relevance of professional triathlon in the sample is rather strong. The
conditional statistics deliver a first insight in the correlation
between the endogenous regressor and the instruments. Both amateurs
living next to Hamburg or Roth and amateurs whose starting decision had
been influenced by professional triathlon report a higher relevance of
professional triathlon on average. According to a U-Test, both
correlations are statistically significant.
Table 4 displays the results of both models, including the first
stage regression results of the 2SLS estimation. In both models,
variance inflation factors are below 5, indicating no signs of serious
multicollinearity. (5)
Overall, the impact of [PRO_RELEVANCE] on [AMATEUR_ACTIVITY] is
positive and significant for both models; according to the OLS results,
amateurs who report a higher relevance of professional triathlon
participate approximately 11% more in amateur triathlon. The 95%
confidence interval is tight, ranging from 7.56% to 14.86%. At the mean
of 9.48 hours, this equals between 44 and 87 minutes more amateur
triathlon each week. According to the 2SLS results, the size of
[PRO_RELEVANCE] is even larger. Amateurs who report a higher relevance
of professional triathlon participate approximately 18% more in amateur
triathlon themselves.
The variance of an instrumental variable estimation is always
larger than the variance of an OLS estimation (Wooldridge, 2010).
Indeed, the standard error of the coefficient of [PRO_RELEVANCE] from
the 2SLS regression is approximately four times larger than the
corresponding OLS standard error. Consequently, the 95% confidence
interval is also much larger, ranging from 2.5% to 33.2%. It even
contains the corresponding interval of the OLS regression. At the mean
of 9.48 hours, this equals between 15 and 195 minutes more amateur
triathlon each week.
It is worth noting that both instruments had a significant effect
on [PRO_RELEVANCE] with the effect of [START] being approximately twice
as large as the effect of [HAMB_ROTH]. According to the Kleibergen-Paap
statistics, the model is assumed to be identified (Baum et al., 2007).
Finally, the Sargan-Hansen statistic testing the overidentification
restrictions is very low (p-value: 0.4067). Based on this result, the
null hypothesis of valid instruments cannot be rejected (Wooldridge,
2010).
Regarding the other variables, the effect of experience on hours of
amateur participation, which is jointly significant, seems to be inverse
u-shaped. All time constraints, namely being married, the size of the
family and the occupational status, are negatively correlated with hours
of triathlon activity. However, only being married is statistically
significant (Dawson & Downward, 2011, 2013; Eberth & Smith,
2010; Garcia et al., 2011; Humphreys & Ruseski, 2006, 2007, 2009).
Discussion
This study analyzes whether the individually perceived relevance of
professional triathlon increases the demand for amateur triathlon
participation. The OLS estimation reveals that relevance of professional
triathlon is correlated with 44 to 87 minutes more amateur participation
each week. This result is in line with the study of Dawson and Downward
(2013), who revealed that watching professional sports on television was
correlated with 67 minutes more sport participation per week. Due to the
large standard error of the 2SLS estimation, the 95% confidence interval
of the coefficient of interest increases to 15 to 195 minutes more
triathlon participation per week. The results of the 2SLS estimation
demonstrate evidence for a causal effect of professional sports on
amateur sport participation in our setting. This effect is in line with
the theoretical framework of sporting role models.
Both employed instruments have a significant effect on the
perceived relevance of professional triathlon. However, the effect of
the residence of the triathletes is comparatively low. In combination
with the finite sample, the results could be seriously biased and have
large standard errors (Bound, Jaeger, & Baker, 1995). The instrument
relevance could be challenged by the new media. Although television
coverage of professional triathlon is less common in Germany, nowadays
nearly everybody has the opportunity to follow professional triathlon on
the Internet. (6) Furthermore, besides Hamburg and Roth, there are
cities in Germany where smaller events for professionals (and amateurs)
take place. Examples are Darmstadt, Dusseldorf, Gladbeck and Hannover
(DTU, 2012). On these occasions, high-level triathlon could also be
available. However, the regional media coverage, which conveys
availability to non- attendants, is not comparable with the coverage of
the two international events in Hamburg and Roth. Regarding the second
instrument, the exogeneity of the previously stated relevance of
professional triathlon could be challenged. The measurement of the
variable may be biased due to the cross-sectional nature of the data.
Although the variable should display the relevance of professional
triathlon at the starting point of their own sport participation, all
variables were measured at the same point in time. Therefore, it is
possible that the previously stated relevance of professional triathlon
has accidentally been influenced by their own participation.
Nevertheless, according to the very low Sargan-Hansen statistic of the
2SLS estimation, both instruments are assumed to be valid. This
statistic is especially convincing because both instruments were
theoretically differently derived.
Nevertheless, the quite similar estimates of OLS and 2SLS might
also indicate that the reverse causal influence (identified to
potentially cause bias in the OLS estimation) is not severe. According
to Hill and Robinson (1991), triathlon participation can be categorized
as a form of fanatic consumer behavior. Fanatic consumers demonstrate a
high obligation and devotion to their activity, which is apparent in the
high time and money investments of triathletes (Wicker et al., 2012).
Consequently, the latent sport affinity is probably very high for all
amateur triathletes, regardless of their frequency of participation. In
addition, triathletes often participate in one of the three individual
sports prior to their triathlon activity (Tribe Group, 2009). Therefore,
they might feel a certain similarity to professional sports based on
their acquired skill level in the individual sport regardless of their
frequency of triathlon participation. On the other hand, the
substitution effect between professional triathlon and triathlon
participation could be substantial. The average triathlete spends over
nine hours per week participating. In addition, he is working fulltime
in a well-paid job. Consequently, the scarce time available has to be
allocated carefully. The more time spent for triathlon participation,
the less time is available for professional triathlon interest
(Lera-Lopez et al., 2012). The causality of such a substitution effect
is important for sport managers and politicians. In this setting, it
seems that amateur participation potentially suppresses time spent on
professional triathlon activities. Such an effect would be alerting for
managers of professional sports who are concerned with attendance rates
for spectatorship or numbers of television viewers.
Implications
The results of this study could be utilized by sport managers in
different areas. Managers of amateur triathlon events could engage
professional athletes to make a special appearance in order to increase
the demand for participation. In addition, the triathlon goods and
services industries could incorporate professional sports in their
marketing strategies, using the motivational power to increase their own
revenues. The running brand Asics, for example, currently sponsors the
German professional triathletes Justus Steffen and Maik Petzold. To
confirm further this idea, the choice of triathlon brands for American
amateurs was found to be influenced by brands that sponsor both events
and professional athletes (Tribe Group, 2009). Furthermore, policy
interventions targeting active sports participants could utilize
professional sports in programs or promotions to increase the frequency
of participation. Making professional sports more available, especially
in sports with lower media coverage, is of crucial importance. Finally,
compared with other sports, amateur participants in triathlon and
marathon events are offered the possibility to line-up alongside of
professional athletes, which increases the similarity between
professional and amateur athletes. Applying this concept to other
sporting events could utilize the motivational effect of professional
sports and potentially increase attendance rates of amateur
participants.
Limitations
Conclusions about the population of all triathletes in Germany have
to be drawn cautiously. The sample was non-randomly drawn and only
consists of organized triathletes. According to the DTU (2012), there
exist three times as many unorganized triathletes in Germany. Therefore,
the results might not be representative of the population of all amateur
triathletes in Germany. Nevertheless, the sample characteristics matched
very well with the samples of prior studies that also survey amateur
triathletes (Tribe Group, 2009; Wicker et al., 2012). Another limitation
is concerned with the rather low explained variance of the estimated
models. Comparable with other cross-sectional studies in sport
participation research, the R squared of the models ranged from 7% to 9%
(Breuer & Wicker, 2008). The decisions of fanatic consumers cannot
always be explained by rational choice (Holbrook & Hirschman, 1982).
Therefore, the observable covariates could not capture all of the
variance of the frequency of participation properly. In addition, Wicker
et al. (2012) found that the population of amateur triathletes is very
heterogeneous. They identified three segments of triathletes (serious
pursuiters, sport lovers and socializes) with different behavioral
patterns and socio-economic characteristics. According to these results,
treating all triathletes as a homogeneous group might aggravate
behavioral analysis.
Conclusion
The present study provides evidence that an individually perceived
relevance of professional triathlon causally increases the time spent on
amateur triathlon participation. However, the transfer of these results
to other countries and/or other sports is limited due to special
characteristics of triathlon, such as the limited number of participants
in general or the high physiological requirements.
Nevertheless, further research in this area is promising.
Increasing sport participation is still a major (sports) policy concern
and, in addition, of highest relevance for sport managers of different
industries. However, it has to be mentioned that the methodological
approach to evaluate an isolated causal effect of a professional sports
stimulus faces some serious difficulties. Advanced research designs and
longitudinal data will be necessary to deliver further insights.
Authors' Note
Special credit is due to Rob Simmons and two anonymous referees,
who significantly helped to improve the article.
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Felix Mutter [1] and Tim Pawlowski [2]
[1] Pricewaterhouse Coopers AG WPG
[2] University of Tubingen
Endnotes
(1) In Germany, more than 150,000 people actively participate in
triathlon (Preuss, Alfs, & Ahlert, 2012). Triathlon is an
increasingly popular sport worldwide. For instance, in the last five
years the number of organized triathletes increased by over 80%
(Deutscher Olympischer Sportbund [DOSB], 2012). Similar trends are
visible in the USA (USA Triathlon, 2012). Unlike in other sports, the
distinction between professional triathletes and amateur triathletes is
not selective. On the one hand, amateur triathletes participate on a
recreational basis and attend none or few amateur races per season. On
the other hand, professional triathletes attend high-level competitions
like the ITU World Series or the IOC Olympic Games. Other types of
triathletes with different behavioural patterns could be arranged along
this continuum. Throughout this paper, the term "professional
triathlon" refers to the former, high-level triathlon. The term
"amateur triathlon" refers to all other triathletes.
(2) Neoclassical economic frameworks are also capable to generate
predictions about the effects of professional sports on amateur sport
participation. One example would be the concept of consumption capital,
derived by Stigler and Becker (1977).
(3) Indeed, 90.07 % of the total sample reported no major change of
residence within the last four years. According to a chi square test,
there is no correlation between the residence near Hamburg or Roth and
the change of residence within the last four years (p-value: .3010).
(4) According to the Tribe Group (2009), the average American
triathlete is 38 years old, and approximately one third of American
triathletes are female.
(5) Exceptions are the variance inflation factors of [EXPER] and
[EXPER2]. This is not a concern because these variables are related to
each other by the construction of the model. Furthermore, these
variables are only included in the model for control purposes. The
coefficient of interest is not affected by the mulitcollinearity between
them (Wooldridge, 2010).
(6) Examples of the use of the Internet for media coverage of niche
sports can be found in Kassing and Sanderson (2010) for cycling,
McCarthy (2011) for gymnastics, and Schoenstedt and Reau (2010) for
running.
Felix Mutter is a former PhD student at the Institute of Sport
Economics and Sport Management at the German Sport University Cologne.
His research interests include tax and transfer pricing issues in sport
industries and analysis of sports demand.
Tim Pawlowski is a professor of sport economics, sport management,
and sport media research in the Faculty of Economics and Social Science.
His research interests include the analysis of sports demand, the
financing of sport systems, and the economics of league competitions.
Table 1: The Sports Involvement Inventory, adapted to triathlon (Shank
& Beasley, 1998). Respondents answered the question: "For me,
professional triathlon is..."
1 2 3 4 5 6 7
Boring Exciting
Interesting Uninteresting
Valuable Worthless
Appealing Unappealing
Useless Useful
Not needed Needed
Irrelevant Relevant
Important Unimportant
Table 2: Relevant Variables
Variable Description Scale
AMATEUR_ ACTIVITY Hours of amateur triathlon activity Metric
per week
PRO_RELEVANCE Individually perceived relevance of Ordinal
professional triathlon
HAMB_ROTH Residence within 60 minutes travel Binary
time of the city centres of
Hamburg or Roth (1 = yes)
START Decision to start triathlon Binary
activity was influenced by
professional triathlon (1 = yes)
AGE Years of age Metric
FEMI Feminine (1 = yes) Binary
FULLTIME Fulltime employment (1 = yes) Binary
MARRIED Married (1 = yes) Binary
FAMILY Household size in numbers Metric
EXPER Years of active triathlon Metric
participation
URBAN1 Residence: Under 20.000 inhabitants Binary
(1 = yes)
URBAN2 Residence: 20.000-49.999 Binary
inhabitants (1 = yes)
URBAN3 Residence: 50.000-99.999 Binary
inhabitants (1 = yes)
URBAN4 Residence: 100.000-199.999 Binary
inhabitants (1 = yes)
URBAN5 Residence: 200.000 inhabitants and Binary
more (1 = yes)
Table 3: Descriptive statistics with mean and standard deviation for
metric and ordinal variables and percentage yes for binary variables
for the total sample and conditional on both instruments.
Total sample HAMB_ROTH = 1 START = 1
PRO_RELEVANCE 05.57 (01.04) 05.78 (0.838) 05.98 (0.764)
AMATEUR_ ACTIVITY 09.48 (04.19) 09.76 (04.16) 10.25 (04.01)
EXPER 07.44 (06.91) 06.65 (05.97) 06.29 (05.84)
AGE 37.81 (11.55) 38.43 (10.44) 36.20 (10.74)
FEMI 25.36 % 25.22 % 17.07 %
FULLTIME 71.00 % 78.26 % 72.14 %
MARRIED 44.75 % 46.49 % 29.08 %
FAMILY 02.73 (02.02) 02.53 (01.22) 02.51 (01.32)
URBAN1 26.80 % 25.22 % 25.53 %
URBAN2 18.95 % 08.70 % 14.18 %
URBAN3 08.89 % 01.74 % 06.36 %
URBAN4 06.27 % 03.48 % 07.09 %
URBAN5 36.99 % 60.87 % 46.81 %
HAMB_ROTH 15.03 % 18.44 %
START 18.43 % 22.61 %
Observations N=765 N=115 N=141
Table 4: Coefficient of the OLS and 2SLS estimations including the
first stage results. Logarithmic hours of weekly amateur triathlon
participation as dependent variable. Robust standard errors in
parentheses.
Model 1 (OLS) Model 2 (2SLS)
Variable First stage
PRO_RELEVANCE 0.112 (.019) ***
FEMI - 0.060 (.038) 0.067 (.080)
AGE - 0.001 (.003) - 0.003 (.006)
[AGE.sup.2] 0.000 (.000) 0.000 (.000)
EXPER 0.017 (.009) * 0.027 (.018)
[EXPER.sup.2] - 0.001 (.000) * - 0.001 (.001)
FULLTIME - 0.022 (.042) 0.064 (.100)
MARRIED - 0.109 (.041) *** - 0.051 (.084)
FAMILY - 0.009 (.009) 0.015 (.010)
URBAN1 Reference Reference
URBAN2 0.004 (.049) - 0.051 (.115)
URBAN3 0.049 (.065) 0.020 (.129)
URBAN4 - 0.014 (.070) 0.201 (.163)
URBAN5 - 0.008 (.040) 0.032 (.085)
HAMB_ROTH 0.217 (.087) **
START 0.478 (.078) ***
Constant 2.251 (.084) *** - 0.274 (.160) *
Observations 759 759
Centred [R.sup.2] 0.0882 0.050
Kleibergen-Paap rk LM
Kleibergen-Paap rk Wald F
Sargan-Hansen
Variable Second stage
PRO_RELEVANCE 0.179 (.078) **
FEMI - 0.061 (.039)
AGE - 0.001 (.003)
[AGE.sup.2] 0.000 (.000)
EXPER 0.016 (.010)
[EXPER.sup.2] - 0.001 (.000) *
FULLTIME - 0.029 (.044)
MARRIED - 0.104 (.042) **
FAMILY - 0.009 (.010)
URBAN1 Reference
URBAN2 0.010 (.051)
URBAN3 0.050 (.065)
URBAN4 - 0.027 (.074)
URBAN5 - 0.014 (.041)
HAMB_ROTH
START
Constant 2.258 (.085) ***
Observations 759
Centred [R.sup.2] 0.0685
Kleibergen-Paap rk LM 35.538
Kleibergen-Paap rk Wald F 15.415
Sargan-Hansen 0.688
* 10% Significance
** 5% Significance
*** 1% Significance