The aim of this study is to determine the effects of personal ergonomic adaptations of the bicycle on the bicycle performance parameters, together with the exercise program training created to prevent biomechanical problems that cause injuries in recreational cyclist.
Considering the pandemic period we are living in, people are much more interested in health, sports and nature than they used to be. From this perspective, the interest in cycling, which can accommodate all of these features at the same time, is rapidly increasing. Individuals take bicycle rides in nature in their free time and make this activity a way of life. However, as in every physical activity, factors such as lack of knowledge in cycling, choosing the wrong bike and material, and not knowing the important basics of sports cause non-traumatic injuries in cyclists. While transitioning from the sedentary life brought by the age of technology to the activity, the musculoskeletal systems of individuals are caught unprepared and even exposed to various traumas and biomechanical problems. Because the looping motion of the lower extremities while cycling occurs primarily in the sagittal plane, power imbalances can develop that affect a cyclist's susceptibility to injury elsewhere along the kinetic chain. The most common areas of overuse injury in cycling are the knee, lumbar spine, cervical spine, hip, Achilles tendon, wrists, and forearm.
Study Type
INTERVENTIONAL
Allocation
RANDOMIZED
Purpose
TREATMENT
Masking
NONE
Enrollment
54
12 week exercise and fit bike
Fit bike
Yusuf Şinasi Kirmaci
Gaziantep, Turkey (Türkiye)
Body Composition
Body fat percentage will be determined by skinfold measurement
Time frame: Change from Baseline at 12th weeks and 6th month
Muscle strength
It will be measured with "1 max rep" (1RM).
Time frame: Change from Baseline at 12th weeks and 6th month
Flexibility
It will be evaluated with sit-reach test and modified ober test.
Time frame: Change from Baseline at 12th weeks and 6th month
Aerobic Capacity
It will be evaluated by shuttle run.
Time frame: Change from Baseline at 12th weeks and 6th month
Functional threshold power test (FTP)
It is obtained by calculating the force applied while pedaling for 20 minutes.
Time frame: Change from Baseline at 12th weeks and 6th month
Lactate threshold heart rate
Average heart rate taken while pedaling for 20 minutes.
Time frame: Change from Baseline at 12th weeks and 6th month
10-Mile Trial Test
The time it takes to complete 10 miles in the fastest possible time is counted.
Time frame: Change from Baseline at 12th weeks and 6th month
Critical Power test
It is the estimation of the maximum effort that can be sustained for 3 minutes.
Time frame: Change from Baseline at 12th weeks and 6th month
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Muscle myotonometric properties
It will be measured with myoton pro.
Time frame: Change from Baseline at 12th weeks and 6th month
Balance
It will be measured with Y balance test.
Time frame: Change from Baseline at 12th weeks and 6th month
Perceived pain
It will be measured with McGill pain questionnaire
Time frame: Change from Baseline at 12th weeks and 6th month
İnjury
It will be measured with The Nordic musculoskeletal questionnaire
Time frame: Change from Baseline at 12th weeks and 6th month