Outcome
Type |
Measure |
Description |
Time frame |
Safety issue |
Primary |
Pedobarographic investigation |
By means of pressure sensors in force platforms, foot pressure is detected and transferred to computer environment. Static and dynamic measurement is also possible. Plantar pressure can be measured as total and divided areas and it will be combined to report g/cm2. Plantar contact area can be measured as total and divided areas and it will be combined to report cm2. |
day 0 (before intervention) |
|
Primary |
Pedobarographic investigation |
By means of pressure sensors in force platforms, foot pressure is detected and transferred to computer environment. Static and dynamic measurement is also possible. Plantar pressure can be measured as total and divided areas and it will be combined to report g/cm2. Plantar contact area can be measured as total and divided areas and it will be combined to report cm2. |
4 weeks |
|
Primary |
Pedobarographic investigation |
By means of pressure sensors in force platforms, foot pressure is detected and transferred to computer environment. Static and dynamic measurement is also possible. Plantar pressure can be measured as total and divided areas and it will be combined to report g/cm2. Plantar contact area can be measured as total and divided areas and it will be combined to report cm2. |
12 weeks |
|
Primary |
Pedobarographic investigation |
By means of pressure sensors in force platforms, foot pressure is detected and transferred to computer environment. Static and dynamic measurement is also possible. Plantar pressure can be measured as total and divided areas and it will be combined to report g/cm2. Plantar contact area can be measured as total and divided areas and it will be combined to report cm2. |
16 weeks |
|
Primary |
Biodex Balance System |
It is a multi-axis device which objectively measures the balance of the person in static state or under dynamic stress and records the measurement results. The Biodex Balance System permits a 20 ° inclination of the foot platform in all directions. Thus, it provides maximum stimulation of the mechanical sensors in the ankle. Biodex Balance System measurements are calculated in degrees for each direction It can be done by creating a dynamic environment for the measurement of fall risk on the same platform . |
day 0 (before intervention) |
|
Primary |
Biodex Balance System |
It is a multi-axis device which objectively measures the balance of the person in static state or under dynamic stress and records the measurement results. The Biodex Balance System permits a 20 ° inclination of the foot platform in all directions. Thus, it provides maximum stimulation of the mechanical sensors in the ankle. Biodex Balance System measurements are calculated in degrees for each direction It can be done by creating a dynamic environment for the measurement of fall risk on the same platform . |
4 weeks |
|
Primary |
Biodex Balance System |
It is a multi-axis device which objectively measures the balance of the person in static state or under dynamic stress and records the measurement results. The Biodex Balance System permits a 20 ° inclination of the foot platform in all directions. Thus, it provides maximum stimulation of the mechanical sensors in the ankle. Biodex Balance System measurements are calculated in degrees for each direction It can be done by creating a dynamic environment for the measurement of fall risk on the same platform . |
12 weeks |
|
Primary |
Biodex Balance System |
It is a multi-axis device which objectively measures the balance of the person in static state or under dynamic stress and records the measurement results. The Biodex Balance System permits a 20 ° inclination of the foot platform in all directions. Thus, it provides maximum stimulation of the mechanical sensors in the ankle. Biodex Balance System measurements are calculated in degrees for each direction It can be done by creating a dynamic environment for the measurement of fall risk on the same platform . |
16 weeks |
|
Secondary |
Berg Balance Scala |
It is a 14-item clinical scale evaluating static and dynamic equilibrium abilities, each section rated from 0 (poor) to 4 (best). The highest score is 56. A score of less than 45 is an indicator of addiction in daily life. Evaluates the level of dependence and / or independence during positions such as standing up from sitting, standing with feet adjacent, standing in tandem position, staying in balance on one leg and ability to change position. The highest scores indicate the best balance score. |
day 0 (before intervention) |
|
Secondary |
Berg Balance Scala |
It is a 14-item clinical scale evaluating static and dynamic equilibrium abilities, each section rated from 0 (poor) to 4 (best). The highest score is 56. A score of less than 45 is an indicator of addiction in daily life. Evaluates the level of dependence and / or independence during positions such as standing up from sitting, standing with feet adjacent, standing in tandem position, staying in balance on one leg and ability to change position. The highest scores indicate the best balance score |
4 weeks |
|
Secondary |
Berg Balance Scala |
It is a 14-item clinical scale evaluating static and dynamic equilibrium abilities, each section rated from 0 (poor) to 4 (best). The highest score is 56. A score of less than 45 is an indicator of addiction in daily life. Evaluates the level of dependence and / or independence during positions such as standing up from sitting, standing with feet adjacent, standing in tandem position, staying in balance on one leg and ability to change position. The highest scores indicate the best balance score |
12 weeks |
|
Secondary |
Berg Balance |
It is a 14-item clinical scale evaluating static and dynamic equilibrium abilities, each section rated from 0 (poor) to 4 (best). The highest score is 56. A score of less than 45 is an indicator of addiction in daily life. Evaluates the level of dependence and / or independence during positions such as standing up from sitting, standing with feet adjacent, standing in tandem position, staying in balance on one leg and ability to change position. The highest scores indicate the best balance score |
16 weeks |
|
Secondary |
30 Second Chair Stand Test |
A test that assesses the person's sit-up activity, lower extremity strength and dynamic balance. Number of sitting and getting up in 30 seconds is noted. |
day 0 (before intervention) |
|
Secondary |
30 Second Chair Stand Test |
A test that assesses the person's sit-up activity, lower extremity strength and dynamic balance. Number of sitting and getting up in 30 seconds is noted. |
4 weeks |
|
Secondary |
30 Second Chair Stand Test |
A test that assesses the person's sit-up activity, lower extremity strength and dynamic balance. Number of sitting and getting up in 30 seconds is noted. |
12 weeks |
|
Secondary |
30 Second Chair Stand Test |
A test that assesses the person's sit-up activity, lower extremity strength and dynamic balance. Number of sitting and getting up in 30 seconds is noted. |
16 weeks |
|
Secondary |
Semmes Weinstein Monofilament Test |
Consists of 6 different diameter and equal length monofilments. The test of the sense of touch by questioning whether the person feels the monofilament touches while their eyes are closed. |
day 0 (before intervention) |
|
Secondary |
Semmes Weinstein Monofilament Test |
Consists of 6 different diameter and equal length monofilments. The test of the sense of touch by questioning whether the person feels the monofilament touches while their eyes are closed. |
4 weeks |
|
Secondary |
Semmes Weinstein Monofilament Test |
Consists of 6 different diameter and equal length monofilments. The test of the sense of touch by questioning whether the person feels the monofilament touches while their eyes are closed. |
12 weeks |
|
Secondary |
Semmes Weinstein Monofilament Test |
Consists of 6 different diameter and equal length monofilments. The test of the sense of touch by questioning whether the person feels the monofilament touches while their eyes are closed. |
16 weeks |
|