Yes, we know neuroplasticity works but all this is practically useless since there is NO EXACT PROTOCOL TO FOLLOW. Until we know why and how a neuron gives up its current function to take on a neighbors task it will never become usefully repeatable. Principles are not good enough.
Neuroplasticity and practical principles of practice for brain injured patients
Neuroplasticity is the ability of the brain whether injured or
uninjured to learn new behaviours and functions by neurons altering
their structure, function and forming neural pathways for the adaption
to take place.
This post is going to look at neuroplasticity and its relevance to rehabilitation as well as a summary of the principles of experience-dependent plasticity in rehabilitation. (Kleim and Jones, 2008)
There is significant evidence which indicate that the brain is creating new connections and neural pathways to store new experiences and to allow for behavioural changes. This is a process which is taking place constantly. (Black, Jones, Nelson and Greenough, 1997; Grossman, Churchill, Bates, Kleim and Greenough, 2002).
After a brain injury, learning and re-learning is an essential part of brain adaptation. We often see how the brain re-learns movements by the way the individual develops compensatory behavioural movements to functionally adapt after a brain injury. This can be seen by an individual with hemiplegia (one side affected) being dominant and reliant on the unaffected side. Eg. Weight bearing only on the one leg. The process of rehabilitation looks at correcting these functional maladaptations using neuroplasticity and the principles discussed later in combination with a structured exercise program.
Brain damage changes the way the brain responds to learning. A brain injury not only affects movements but can also affect speech, cognition, mood and we therefore require a multidisciplinary approach to treating individuals with a brain injury.
Principles of experience-dependent plasticity in rehabilitation.
Kleim and Jones (2008), identified 10 principles which hold relevance to outcomes in brain plasticity in the injured and uninjured brain.
If you had any brains at all you would
realize this quantifying nonuse doesn't get survivors recovered at all.
Create protocols for 100% recovery and nonuse wouldn't exist. SOLVE THE CORRECT PROBLEM! I have dead brain there so use of the muscle is impossible; stop blaming me for not recovering! You need to create dead brain rehab protocols!
This post is going to look at neuroplasticity and its relevance to rehabilitation as well as a summary of the principles of experience-dependent plasticity in rehabilitation. (Kleim and Jones, 2008)
There is significant evidence which indicate that the brain is creating new connections and neural pathways to store new experiences and to allow for behavioural changes. This is a process which is taking place constantly. (Black, Jones, Nelson and Greenough, 1997; Grossman, Churchill, Bates, Kleim and Greenough, 2002).
After a brain injury, learning and re-learning is an essential part of brain adaptation. We often see how the brain re-learns movements by the way the individual develops compensatory behavioural movements to functionally adapt after a brain injury. This can be seen by an individual with hemiplegia (one side affected) being dominant and reliant on the unaffected side. Eg. Weight bearing only on the one leg. The process of rehabilitation looks at correcting these functional maladaptations using neuroplasticity and the principles discussed later in combination with a structured exercise program.
Brain damage changes the way the brain responds to learning. A brain injury not only affects movements but can also affect speech, cognition, mood and we therefore require a multidisciplinary approach to treating individuals with a brain injury.
Principles of experience-dependent plasticity in rehabilitation.
Kleim and Jones (2008), identified 10 principles which hold relevance to outcomes in brain plasticity in the injured and uninjured brain.
- Use it or lose it
If you had any brains at all you would
realize this quantifying nonuse doesn't get survivors recovered at all.
Create protocols for 100% recovery and nonuse wouldn't exist. SOLVE THE CORRECT PROBLEM! I have dead brain there so use of the muscle is impossible; stop blaming me for not recovering! You need to create dead brain rehab protocols!
There seems to be functional loss in behavioural movements and
patterns if there is no specific training in the functional movements.
It is important to note with intensity however, there needs to be careful consideration to patients being exposed to overuse injuries using this rule. A clinician should use good judgement as to find the appropriate intensity for the person being treated.
As stated by Kleim and Jones, 2008, this list is not a comprehensive list, but it brings forth keys principles which researchers have found to be relevant to rehabilitation of persons with brain injury. It gives a guideline for individuals who are looking into therapy for themselves or people they know who have had a brain injury and aids clinicians who wish to design and structure their rehabilitation program. As a Biokineticist we aim to use these principles in a structured exercise rehabilitation program to maximise the benefits of therapy for the individual.
References:
Kleim, J.A., Jones, T.A., (2008). Principles of experience dependent neural plasticity: Implications for rehabilitation after brain damage. Journal of Speech, Language, and Hearing Research, 51, 225-239.
Black, J. E., Jones, T. A., Nelson, C. A., & Greenough, W. T. (1997). Neuronal plasticity and the developing brain. In J. D. Noshpitz, N. E. Alessi, J. T. Coyle, S. I. Harrison, & S. Eth (Eds.), Handbook of child and adolescent psychiatry (Vol. 6, pp. 31–53). New York: Wiley.
Grossman, A. W., Churchill, J. D., Bates, K. E., Kleim, J. A., & Greenough, W. T. (2002). A brain adaptation view ofplasticity:Issynapticplasticityanoverlylimitedconcept? Progress in Brain Research, 138, 91–108.
Kleim, J. A., Barbay, S., Cooper, N. R., Hogg, T. M., Reidel,C.N.,Remple,M.S.,etal.(2002).Motorlearningdependent synaptogenesis is localized to functionally reorganized motor cortex. Neurobiology of Learning and Memory, 77, 63–77.
- Use it and improve it
- Specificity
- Repetition
- Intensity
It is important to note with intensity however, there needs to be careful consideration to patients being exposed to overuse injuries using this rule. A clinician should use good judgement as to find the appropriate intensity for the person being treated.
- Time
- Salience
- Age matters
- Transference
- Interference
As stated by Kleim and Jones, 2008, this list is not a comprehensive list, but it brings forth keys principles which researchers have found to be relevant to rehabilitation of persons with brain injury. It gives a guideline for individuals who are looking into therapy for themselves or people they know who have had a brain injury and aids clinicians who wish to design and structure their rehabilitation program. As a Biokineticist we aim to use these principles in a structured exercise rehabilitation program to maximise the benefits of therapy for the individual.
References:
Kleim, J.A., Jones, T.A., (2008). Principles of experience dependent neural plasticity: Implications for rehabilitation after brain damage. Journal of Speech, Language, and Hearing Research, 51, 225-239.
Black, J. E., Jones, T. A., Nelson, C. A., & Greenough, W. T. (1997). Neuronal plasticity and the developing brain. In J. D. Noshpitz, N. E. Alessi, J. T. Coyle, S. I. Harrison, & S. Eth (Eds.), Handbook of child and adolescent psychiatry (Vol. 6, pp. 31–53). New York: Wiley.
Grossman, A. W., Churchill, J. D., Bates, K. E., Kleim, J. A., & Greenough, W. T. (2002). A brain adaptation view ofplasticity:Issynapticplasticityanoverlylimitedconcept? Progress in Brain Research, 138, 91–108.
Kleim, J. A., Barbay, S., Cooper, N. R., Hogg, T. M., Reidel,C.N.,Remple,M.S.,etal.(2002).Motorlearningdependent synaptogenesis is localized to functionally reorganized motor cortex. Neurobiology of Learning and Memory, 77, 63–77.
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