Loads cannot grow uncontrolled. Human possibilities are limited by
adaptation possibilities, which means that, in specified moment, increased
loads have negative effect. That border between the biggest effects and their
sudden drop, is called training load critical value. This variable
depends on individual adaptative reactions and it is changed during training
process. Moving speed, or athlete ability to adapt quickly on bigger loads,
represents significant indicator of its talent.
Term maximal
load should also be defined. Based on previous facts, it can be concluded
that maximal load is not the load that can be handled by the athlete. More
important question is if it is possible or not to adapt on that type of load. Thus,
for
maximal load should be thought the load that reaches the limit of possible
organism functional ability, but which doesn’t exceed the limit of its
adaptative possibilities. Furthermore, load is always related on load
intensity and volume. Maximal load means high intensity and huge summary
training work volume. Only high intensity(and low volume) or high volume(low
intensity) cannot be considered for maximal load.
Loads
in training should be increased gradually, and lips and bounds. Usually the
growth is gradual, and in specified training phases, when organism is prepared for
that, leaps and bounds growth occurs. During the carriere, loads are being increased multiply. For example,
summary year training volume, which is 100-200 hours at beginner, grows during
career even on 1500 hours. Significantly is being increased also the number
of trainings during one day and microcycles, number of trainings with huge load
during the microcycle, competitive activity volume etc.
Load dynamics waviness is one of the most
important theoretic training settings. This setting is featured for all
structural units and has a great significance for practical work in sport. However, waviness is more emphasized in
bigger structural units, cause in smaller units some other types of load
dynamics can be present. Three types are spotted:
1) small waves, featured for microcycles;
2) medium waves, featured for mesocycles
3) big waves, featured for stages, periods
and year training macrocycles
Many reasons exist that cause load dynamics
waviness. First reason is lawfull relation of load and volume – increase in one
of them leads to decrease in other. Second reason is due to recovery and
adaptation processes conducting in phases and heterochrono. Third reason is
lawfull periodic vacillation of physical work ability under an influence of
biorhytms and surround factors. When it is talked about biorhytms, objective
biorhytms should be considered( day and night change, seasons change, Moon
phases, menstrual cycle etc.), and not biorhytms that are calculated
mathematically, unless the athletes’ dominant intelligence type is clear logic.
Practical realization of wavy load principles
is the most visible in the stage of immediate preparation for important
competition. In the first phases of this
stage summary load usually grows gradually, reaches its peak, and than is being
suddenly dropped in front of the main competition. However, load increase
don’t lead to increase, but to results dropping. Other words, applied loads don’t give result right away, cause organism
needs some time to adapt and recover to the level of supercompensation.
Decrease in total load size organism survives as a relieve, after which it
comes to performance and sport results increase. This is called the phenomenon of delayed transformation.
The advantage of wavy load dynamics is due to
overtraining stopping in which dominate huge loads. Furthermore, level of physical work
ability and summary work volume are being increased.
"Basics of sports training",
Vladimir Koprivica
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