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17 Cards in this Set
- Front
- Back
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What are the processes that hormones regulate?
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Reproduction
Growth Reproductive maturity Internal environment Energy metabolism |
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What is hyperalgesia?
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The exaggerated response to a noxious stimulus
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What is allodynia? Associated with what type of patients?
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Pain perceived from stimulus not normally known to cause pain
- Descending inhibitory influences are decreased (it occurs after too much hyperalglasia) Chronic pain patients |
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What is the neurological afferent activity action at the dorsal horn? What happen when there is continual afferent activity?
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Relays the sensory information to the CNS
Ca channels Phosphorylation cascades Lose inhibitory neuron function All aid in maintaining facilitation |
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What is the neurological efferent activity action at the ventral horn?
What does it affect in Endocrine glands? What does this have to do with somatic dysfunction? |
Facilitation outflows to autonomics
- Affecting visceral function (Endocrine Gland) - Facilitation outflows to soma - Muscle spasm – tissue texture changes, asymmetry, altered range of motion, tenderness (TART) |
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What would activate the neuroendocrine-immune axis in the CNS?
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Circadian release of cortisol
Unexpected or noxious stimuli- Somatic or visceral - Strong emotional drive- Limbic system connections |
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Where is the sympathetic center of the CNS?
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locus cerelius- controls release of catecholamines
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Is allostasis a normal occurring process in the body?
Why does it exist? |
Yes- To maintain balance and function it goes up with problems and decreases when problem goes away
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Explain the cascade of events that drive the body towards allostasis
How does this cascade develope into a disease state? |
Activation of the brainstem SNS and the hypothalamus-pituitary axis (HPA) drives the body toward allostasis
- increased stimulus increases load which decreases feedback mechanism for homestasis |
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How will long term high allostatic load affect an endocrine organ and thus its function?
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Viscerosomatic reflexes establish a facilitated segment
The afferent activity of this is the stimulus that begins the process of activating the brainstem SNS This culminates in maintaining somatic dysfunction |
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Name some physiologic effects that have been documented relative to a high allostatic load.
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Pain, segmental spinal reflexes, cardio, pulm, endocrine- excessive andrenergic activity, bagal inhibition, increased O2 demands, hyperglycemia
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How will the use of OMT be helpful in reducing the allostatic load and what is the effect upon potential organ function?
Why is it not curative? |
Overall lowering the allostatic load
- Treating SD’s decreases the neural reflexes that may maintain the noxious stimulus, thus helping the body develop the homeostasis it needs Not Cure Because- allows the body to develop the balance to exist with the disease process in a better balance |
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Where would you apply OMT to have an affect upon the pituitary gland?
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Know CRANIAL TECHNIQUEs
Temporals, Sphenoid, Occiput, Frontal, Parietals |
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Where would you apply OMT to have an affect upon the thyroid gland (for para/sympathetic)?
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para- Vagus
Symp T1-4 |
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Where would you apply OMT to have an affect upon the pancreas?
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Para- vagus
Symp- T5-9 |
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Where would you apply OMT to have an affect upon the adrenal gland?
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Para- none
Symp- T10-11 |
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Where would you apply OMT to have an affect upon the ovary and testes?
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Para- S2-4
Symp- T10-11 |