Research and curiosities
Research
Lakhera and others: The purpose of the research was to measure the lung functions of healthy children aged 13 to 16, and to discover the differences between those who regularly participate in sports and those who do not. Those who are active in sports have a bigger lung capacity on average. It was also noted that being active in sports in adolescence affects the lung capacity in adulthood. The authors believe that the development of lungs in adolescence depends on a healthy diet and other medical circumstances, but it is also influenced by physical activity. Athletes have higher FEV I, indicating a higher expiratory power, and more open airways; they also have a higher MVV, caused by the better endurance of respiratory muscles.
Source: Lakhera, S. C., Kain, T. C., Bandopadhyay, K. P. (1994). Changes in lung function during adolescence in athletes and non-athletes. JSM, 34 (3), 258–262

McKenzie and others: The research was aimed at finding the influence of warming up on bronchoconstriction with athletes who have asthma caused by exertion. They carried out a test for asthma caused by exertion, before the tested athletes warmed up in two ways, continuously for 15 minutes or in intervals. The most effective method proved to be a 15 minute continuous warm up, carried out at 60 percent VO2max effectiveness, after which a limited bronchoconstriction occurred.
Source: McKenzie, D. C., McLuckie, S. L., Stirling, D. R. (1994). The protective effects of continuous and interval exercise in athletes with exercise-induced asthma. MSS, 26 (8), 951–956

Todaro A.: The research monitored the lung functions of top athletes with asthma. It was discovered that asthma does not ‘a priori’ mean a limitation for top athletes, since activity does not cause bronchoconstriction, but just the opposite, bronchodilation, which allows a high level of ventilation and metabolic response. It is also noted that top athletes do not have problems because, after bronchodilation and lung exertion, they gradually return to the state of normal obstruction, to which the athlete is accustomed, earning the asthma the appraisal of being ‘silent’.
Source: Todaro, A. (1996). Exercise induced bronchodilatation in asthmatic athletes. JSM, 36 (1)

Yorio J. M. and others: The research which studied 25 girls with moderate asthma shows that low intensity exercise (50 percent of VO2max) causes a less prominent feeling of shortness of breath. In addition, the feeling of shortness of breath is affected by the anxiousness of the participants. Tendency towards anxiousness and emotional stress is an additional factor influencing the feeling of shortness of breath and the level of bronchoconstriction.
Source: Yorio, J., Dishman, R. K., Forbus, W. R. (1992). Breathlessness predicts perceived exertion in young women with asthma. MSS, 24 (8), 860–867
Curiosities
The origin of the word asthma
The word asthma was already used by the famous writer from antiquity, Homer, in his epic poems the Odyssey and the Iliad. He described warriors rushing into battle as breathing ‘asthmos’ – heavily, because of war zeal, exertion, or even fear. But the word then only signified the symptoms and not the disorder.

Asthma and winners
Medals won by asthma patients in the USA team at the 1984 Olympics in Los Angeles (Bingham, 1990)

All team USA athletes: 597 Medals won: 174
Athletes with asthma: 67 Medals won by athletes with asthma: 41
Discipline Gold Silver Bronze
Basketball 4
Cycling 3 3 2
Horse riding 1
Grass hockey 2
Modern pentathlon 2
Rowing 1 4
Shooting 1
Swimmming 5
Track and field 1 1
Volleyball 3
Water polo 4
Weightlifiting 1
Wrestling 1
Sailing 1
Total 15 21 5


The number of medals won by asthmatic patients on team USA at the 1998 Olympics in Seoul (Bingham, 1990)

All team USA athletes: 611 Medals won: 94
Athletes with asthma: 53 medals won by athletes with asthma: 16
Discipline Gold Silver Bronze
Basketball 2 1
Rowing 2 1
Swimming 2
Track and field 2
Water polo 4
Wrestling 1
Sailing 1
Total 5 10 1

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