| No.46 January 2006 |
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In the first part of this article it will be shown that the investigation
of human behaviour in sport can be carried out only in its entirety.
Instead of monocausal explanations multicausal explanations are needed.
To achieve this goal multi-, trans- and interdisciplinary paradigms
of sport science are a precondition as is also a programme –
a programme of cooperation between sport scientists of different disciplines
in order to combine and develop knowledge and methods from these various
sources.
An example of such a paradigm is the study “Sport and Health.
A Socio-Economic Analysis” which was commissioned by the Federal
Ministry for Social Security and the Generations and undertaken by
the Austrian Federal Sports Organization in collaboration with the
Institute of Sport Science, University of Vienna. This project is
a cost-benefit analysis of active sport in Austria and will be the
second part of this contribution. Paradigms of Sports Science
Figure 1. Paradigm of Sport Science (Past)
![]()
If we look into the history of sport science the starting point was
more or less physical education and the analysis of sport at school.
With the development of sport outside schools (leisure sport, top
level sport etc.), sport medicine, kinesiology, psychology of sport,
sociology of sport and other disciplines of sport science were established
and have investigated sport from many different perspectives.
However, if we look into the future development of sport science we
have to take into consideration that sport has become a social phenomenon
of great magnitude and complexity. This can be seen and demonstrated
most clearly by looking at the example of the economic significance
of sport, which is increasing world-wide. A shorter working week,
an increase in the value we place on leisure, and the growth of the
television industry have helped sport to become a commodity to be
produced, marketed, and sold to the public.
As a result sport has become a huge industry. In order to explore
this relationship, this symbiosis between sport and economy not only
the scientific discipline “economics of sport“ is necessary,
but disciplines such as psychology of sport, sociology of sport and
many others are also needed.
In the same way the analysis of sport and health requires knowledge
and methods sociological, psychological, anthropological to name a
few. The field of health and sport is very heterogeneous and complex;
its investigation does not by any means take one particular research
paradigm as the law but rather prefers pluralism in theory and methodology.
As an integrative discipline sport science needs integrative concepts
and research designs. In brief, the development of sport science in
the past century was characterised by the genesis of and differentiation
between various disciplines which developed independent of one another
into kinesiology, sociology of sport, economics of sport and so on.
Cooperation and integration of these disciplines could be the programme
of sport science for this young century.
Figure 2. Paradigm of Sport Science (Future)
This shows that multi-, trans- and interdisciplinarity
could be the most important paradigms of sport science in the future.
Multidisciplinary research means
the cooperation between different and appropriate disciplines.
Transdisciplinary research means
the introduction of foreign elements into an established science.
Interdisciplinary research means
the development of comprehensive theoretical concepts through integration
of knowledge and methods from different disciplines.
In Vienna we conducted an inter- and indeed also transdisciplinary
study concerning the cost/benefit balance of sport participation in
Austria. A study of this sort entails cooperation between health economists,
sport sociologists and sport physiologists, which seems to be a good
example of such a multidisciplinary paradigm. Physiologists evaluated the epidemiological results, economists did the calculations, and sociologists were responsible for the concept and for the interpretation of the results. Due to increasing sport participation in Austria, the question was raised in particular in the media whether sports accidents and sports injuries were too expensive from the national economic point of view. It was argued that those who were not involved in sport would have to pay for the pleasure of the sport participants in particular when they are involved in extreme sports. In order to objectivize this question the study “Sport and Health” was undertaken. This project is a socio-economic analysis of the costs of sports accidents on the one hand and the benefits of sport participation on the other. The Cost of Sports Injuries and Accidents
During 1998 98,626 sports accidents were registered in Austria. The
direct costs (for medical treatment and rehabilitation) and the follow-up
costs (for sick leave, invalidity pay or death) amounted to €
302 million. Table 1 shows the division of these costs according to
type of expense.
Table 1. Cost of Sports Accidents according
to Type of Expense (in Austria in 1998)
§ In 1998 the average total cost per sports accident was approximately
€ 3.050.
§ If the total cost of sports accidents is broken down according to the seriousness of injuries the result is as can be seen in table 2. Table 2. Cost of Sports Accidents according
to Seriousness (in Austria in 1998)
![]() A serious injury requires in-patient treatment. A minor injury requires
treatment either as an out-patient or in a doctor’s practice.
Table 3. Cost of Treatment for Non-fatal Sports
Accidents according to Type of Sport (in Austria in 1998)
Table 4. Cost to the Economy of Sports Accidents in terms of
Type of Cost and of Sports with the Most Accidents (in Austria in 1998)
The Benefit of Sport to Health Economy
The methodological basis used to calculate the benefit of active sport was based on the following figure. Figure 3. Risk Groups resulting from the Practice of Sports in Austria (1998)
The Austrian population was divided into three groups. The first group
was not or little active (1-2 times per month). The second group “moderate”
participated in sports 1-2 times per week. Within the third group
sport participation was high or vigorous, at least 3 times per week.
Figure 3 should be interpreted as follows: the risk of falling ill
or dying of any of the diseases and disorders under scrutiny was least
for the (extremely) active (that is to say, the relative risk factor
between 1 and 1.15), followed by the moderately active (with RR factor
between 1 and 1.45). The group of inactive or marginally active were
most at risk with RR factor ranging from 1.27 to 1.85.
The relative risk figures (multiple of 1) help to calculate the rates
of morbidity and mortality (getting ill or dying). The Austrian RR
distribution has been derived from the results of epidemiological
studies which were conducted mainly in the United States. Forty years
of epidemiological research have shown that physical activity is inversely
related to morbidity and mortality in men and women. This association
is likely to be causal. The moderately and most active or fit individuals
(group II and III) experience morbidity and mortality rates that are
approximately one-third to one half lower than the rates among those
least active or fit (group I).
It turned out that the decrease of morbidity and mortality was relative
to the increase in sport participation. That means that the benefits
of sport participation result from less expenditure for morbidity
and mortality.
We identified the most expensive disease circles, e.g.
According to these disease groups the avoided costs - that is to
say the benefits due to sport participation – were calculated.
Figure 4 shows an example of the relative risk value with reference to coronary heart diseases. Figure 4. Relative Risk Distribution taking
Coronary Heart Diseases (Morbidity) as an Example
![]() The risk of coronary heart diseases is less in the (extremely) active
than in the moderately active (RR factor of 1.1 in the active as opposed
to an RR of 1.3 in the moderately active). The highest risk of contracting
a coronary heart disease is to be seen in the inactive and marginally
active group (RR 1.85).
Using a special formula (Colditz 1999), a population adjusted risk
factor (PAR factor) for each group was calculated from the size of
the relevant risk group and its average “relative risk”
factors (morbidity and mortality). The reduction of risk achieved
by doing sports can be given as a percentage, using these PAR factors.
With the aid of the PAR factor saving in costs to the economy can
be determined.
Avoidance of diseases and lower mortality rates are the benefits and
saving effects of active sport. On the basis of the present levels
of physical activity the saving in public expenditure is calculated
in terms of the type of disease (Figure 5) and the type of cost (Figure
6).
Figure 5. Benefits of Active Sport
Saving in Cost according to Type of Disease (in Austria in 1998)
Figure 6. Benefits of Active Sport
![]() Saving in Expenditure according to Type of Cost (in Austria in 1998) A comparison of the economic costs and benefits of active sport gives
the following picture for 1998:
Table 5: Cost/benefit of active sport in Austria
in 1998.
Table 6. Cost-Benefit of Sport Participation
in Austria
This credit balance can be explained first and foremost by the fact
that sports injuries on the whole require shorter term and cheaper
treatment than diseases caused by lack of exercise. That is to say
it is not, as generally assumed, sport activity which causes greater
expense but rather non-participation in sport.
The decrease of morbidity and mortality is relative to the increase in sport participation. And so from an economic point of view the benefit of sport participation is less expenditure for morbidity and mortality. It is clearly to be seen that more economic costs are incurred not from doing sports but from NOT doing sports. As immaterial values in sport such as mental, physical and social well-being cannot be quantified, these remain as an additional benefit. Figure 7. Savings Potential of Sport Participation
in Austria ![]()
The expenditure caused by the relative inactivity of the population
group which does little or no sport amounts to some € 840 million.
In other words: if half the “inactive” risk group were
transferred to the “moderately active” group and the other
half to the “active – extremely active” group this
would result in an additional benefit or saving effect of € 840
million.
In order to obtain a net potential effect as target variable this
potential sum (€ 840 million) must be set against the relevant
cost of sports injuries and accidents at each particular level of
activity. However, this balance could be improved by introducing effective
measures for avoiding injury.
The results of the study can be summed up as follows: Promotion of
sport and exercise as a significant facet of lifestyle in a modern
health and social system not only helps to improve general well-being
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Univ.Prof. Dr. Otmar Weiß
President, European Association for Sociology of Sport Institut für Sportwissenschaft der Universität Wien Auf der Schmelz 6a 1150 Wien, Austria Tel.: +43 / 1 / 4277 48850 Fax: +43 / 1 / 4277 48859 otmar.weiss@univie.ac.at http://www.univie.ac.at/sportsoz http://www.icsspe.org/portal/index.php?w=1&z=5 |