Changing stroke rehab and research worldwide now.Time is Brain! trillions and trillions of neurons that DIE each day because there are NO effective hyperacute therapies besides tPA(only 12% effective). I have 523 posts on hyperacute therapy, enough for researchers to spend decades proving them out. These are my personal ideas and blog on stroke rehabilitation and stroke research. Do not attempt any of these without checking with your medical provider. Unless you join me in agitating, when you need these therapies they won't be there.

What this blog is for:

My blog is not to help survivors recover, it is to have the 10 million yearly stroke survivors light fires underneath their doctors, stroke hospitals and stroke researchers to get stroke solved. 100% recovery. The stroke medical world is completely failing at that goal, they don't even have it as a goal. Shortly after getting out of the hospital and getting NO information on the process or protocols of stroke rehabilitation and recovery I started searching on the internet and found that no other survivor received useful information. This is an attempt to cover all stroke rehabilitation information that should be readily available to survivors so they can talk with informed knowledge to their medical staff. It lays out what needs to be done to get stroke survivors closer to 100% recovery. It's quite disgusting that this information is not available from every stroke association and doctors group.

Showing posts with label references. Show all posts
Showing posts with label references. Show all posts

Thursday, January 14, 2016

Mobility and the Lower Extremity post stroke

Not much hope here. But with the 191 pages and 46 pages of references I'm sure your doctor has this all covered already. But maybe you want to give a quiz.
Everything here should be publicly available with corresponding stroke protocols to accomplish them. But that won't occur because we have NO stroke leadership.  You'll just have to hope that your doctor/therapist knows how to competently reproduce the interventions that were done in the research cited. With no link from this summary to the research this is actually pretty useless.
HAH! You're fucking screwed.
 http://ebrsr.com/sites/default/files/CHapter-9_Mobility-and-Lower-Extrem_FINAL_16ed.pdf


9.11
Summary
1.   There is strong (Level 1a) evidence that the Bobath approach is not superior to other therapy approaches.
2.   There is conflicting (Level 4) evidence that the Motor Learning Approach is superior to the Bobath approach for achieving improvements in functional outcome. There is moderate (Level 1b) evidence that a Motor Learning Approach reduces length of
hospital stay.
3.   There is strong (Level 1a) evidence that the Motor Learning Approach is superior to placebo and moderate (Level 1b) evidence that it is superior to a conventional physiotherapy approach for achieving improvements in functional outcome.
4.   There is strong (Level 1a) evidence that augmented physical therapy is associated with improvements in gait. However, there is also strong (Level 1a) evidence that the beneficial effect is not maintained once therapy has ceased.
5.   There is strong (Level 1a) evidence that balance training post stroke improves outcomes, although some treatment approaches are more effective than others.
6. There is strong (Level 1a) evidence that task-specific gait training techniques can be used to improve gait post stroke.
7. There is strong (Level 1a) evidence that treadmill training (without body weight support) can improve gait velocity in ambulatory patients in the chronic stage of stroke.
8. There is conflicting (Level 4) evidence that the combination of partial body weight support and treadmill training results in improved gait performance compared with other physiotherapy interventions.
9. There is strong (Level 1a) evidence that virtual reality training can be used to enhance gait recovery following stroke.
10. There is strong (Level 1a) evidence that a variety of biofeedback methods that employ visual or auditory feedback can improve measures of a gait and balance.
11. There is moderate (Level 1a) evidence that bilateral leg training does not significantly improve lower-limb motor function.
12. There is moderate (Level 1a) evidence that mental practice improves sit to stand performance.
13. There is conflicting (Level 4) evidence that strength training results in improvements in ADL performance, distance walked or gait speed.
14. There is strong (Level 1a) evidence that while cardiovascular training post stroke improves level of physical fitness and gait performance; it does not result in additional improvement in ADL performance.
15. There is moderate (Level 1b) evidence, based on one “good” but likely underpowered RCT, that encouraging hemiplegic stroke patients to propel their own wheelchair does not have an impact on a variety of functional outcomes.
16. There is limited (level 2) evidence that use of canes is associated with improved functional mobility.
17. There is moderate (Level 1b) evidence that a quad cane is more effective than a standard cane in reducing postural sway.
18. There is strong (Level 1a) evidence that dynamic or standard AFOs can improve elements of gait.
19. There is moderate (Level 1b) evidence that an AFO when combined with posterior tibial nerve deinnervation, improves gait outcomes in hemiplegic stroke patients.
20. There is conflicting (Level 4) evidence that robotic devices are superior to conventional gait training in the improvement of functional walking performance.
21. There is strong (Level 1a) evidence that TENS treatment can decrease spasticity in the chronic stage of stroke.
22. There is strong (Level 1a) evidence that FES and gait retraining results in improvements in hemiplegic gait.
23. There is conflicting (Level 4) evidence that amphetamines improve motor recovery and/or functional outcomes.
24. There is moderate (Level 1b) evidence that methylphenidate helps to improve performance on ADL following stroke.
25. There is limited (Level 2) evidence that L-DOPS improves functional outcomes post stroke over the short-term.
26. There is moderate (Level 1b) evidence that Levodopa improves motor recovery.
27. There is moderate (Level 1b) evidence that ropinirole is no more effective than placebo at increasing gait speed post stroke.
28. There is moderate (Level 1b) evidence that citalopram can improve neurological status following stroke.
29. There is conflicting (Level 4) evidence that fluoxetine can enhance motor recovery following stroke.
30. There is moderate (Level 1b) evidence that Almitrine + Raubasine improves functional outcomes post stroke.
31. There is strong (Level 1a) evidence that piracetam does not improve neurological status or ADL performance following stroke.
32. There is moderate (level 1b) evidence that both a tilt table and night splint effectively prevent ankle contracture in the early period following stroke.
33. There is strong (Level 1a) evidence that treatment with Botulinum toxin reduces lower-limb spasticity.
34. There is conflicting (Level 4) evidence whether botulinum toxin improves functional outcomes.
35.There is strong(Level 1a) evidence that treatment with Botulinum toxin + casting can reduce spasticity following stroke.
36.There is moderate (Level 1b) evidence that a single injection of either phenol or ethyl alcohol can reduce spasticity for up to 6 months.
37. There is conflicting (Level 4) evidence that Dantrolene sodium is effective in treating post-stroke spasticity compared to placebo.
38. There is moderate (Level 1b) evidence that ketazolam, diazepam and tolperisone are more effective when compared to placebo in treating post-stroke spasticity.
39. There is limited (Level 2) evidence that Tizanidine is not superior to oral Baclofen.
40. There is moderate (Level 1b) evidence that Tolperisone reduces spasticity.
41. Based on the results from one RCT there is moderate (Level 1b) evidence that intrathecal baclofen can reduce spasticity in the chronic stages of stroke.
42. There is strong (level 1a) evidence that electrical stimulation can reduce ankle plantarflexion spasticity post stroke.
43. There is moderate (level 1b) evidence that therapeutic ultrasound can reduce alpha motor neuron excitability associated with ankle plantarflexor spasticity.
44. There is moderate (Level 1b) evidence that a single session of isokinetic or isotonic muscle stretch does not improve measures of gait.
 

Upper Extremity Interventions post stroke

Not much hope here. But with the 163 pages and 37 pages of references I'm sure your doctor has this all covered already. But maybe you want to give a quiz.

Everything here should be publicly available with corresponding stroke protocols to accomplish them. But that won't occur because we have NO stroke leadership.  You'll just have to hope that your doctor/therapist knows how to competently reproduce the interventions that were done in the research cited. With no link from this summary to the research this is actually pretty useless.

HAH! You're fucking screwed.

Upper Extremity Interventions post stroke

I'm only including the summary here.

10.11
Summary
1. There is consensus (Level 3) opinion that in severely impaired upper extremities (less than stage
4) the focus of treatment should be on palliation and compensation. For those upper extremities
with signs of some recovery (stage 4 or better) there is consensus (Level 3) opinion that
attempts to restore function through therapy should be made.
2. There is strong (Level 1a) evidence that neurodevelopmental techniques such as Bobath are not
superior to other therapeutic approaches. There is moderate (level 1b) evidence that indicates
compared to Bobath, motor relearning programs may result in improved short-term motor
functioning and shorter lengths of hospital stay.
3. There is moderate (Level 1b) evidence that both functional and neuropsychological approaches
both help to improve dressing performance.
4. There is conflicting (Level 4) evidence that enhanced therapies improve short-term upper
extremity function. There is evidence that results may not be long lasting. There is moderate
(Level 1b) evidence that a program of daily stretch regimens does not prevent the development
of contractures.
5. There is strong (Level 1a) evidence that repetitive task-specific training techniques improve
measures of upper extremity function.
6. There is conflicting (Level 4) evidence that sensorimotor treatments improve upper extremity
function.
7. There is conflicting (Level 4) evidence that bilateral arm training is superior to unilateral
training.
8. There is conflicting (Level 4) evidence that specialized programs improve reaching.
9. There is conflicting (level 4) evidence that mental practice may improve upper-extremity motor
and ADL performance following stroke.
10. There is strong (Level 1a) evidence that hand splinting does not improve impairment or reduce
disability.
11. There is conflicting (Level 4) evidence of benefit of CIMT in the acute stage of stroke.
12. There is strong (Level 1a) evidence of benefit of mCIMT in the acute/subacute stage of stroke.
Benefits appear to be confined to stroke patients with some active wrist and hand movements,
particularly those with sensory loss and neglect.
There is moderate (Level 1b) evidence that any intensity of CIMT will provide benefit.
13. There is conflicting (Level 4) evidence that mirror therapy improves motor function following
stroke and moderate (Level 1b) evidence that it does not reduce spasticity.
14. There is moderate (Level 1b) evidence that action observation improves performance on the Box
& Block test.
15.  There is strong (Level 1a) evidence that extrinsic feedback helps to improve motor learning
following stroke.
16. There is strong (Level 1a) evidence that sensorimotor training with robotic devices improves
upper extremity functional outcomes, and motor outcomes of the shoulder and elbow.
There is strong (Level 1a) evidence that robotic devices do not improve motor outcomes of the wrist and hand.
17. There is strong (Level 1a) evidence that virtual reality treatment can improve locomotor
function in the chronic stages of stroke.
18. There is strong (Level 1a) evidence that hand splinting does not reduce the development of
contracture or reduce spasticity.
19. There is moderate (Level 1a) evidence that a nurse-led stretching program can help to increase
range of motion in the upper extremity and reduce pain in the chronic stage of stroke.
20. There is strong (Level Ia) that treatment with BTX alone or in combination with therapy
significantly decreases spasticity in the upper extremity in stroke survivors.
21. There is conflicting (Level 4) evidence that treatment with BTX alone or in combination with
therapy significantly improves upper limb function or quality of life.
22. There is moderate (Level 1b) evidence that electrical stimulation combined with botulinum toxin
injection is associated with reductions in muscle tone.
23. There is moderate (Level 1b) evidence that electrical stimulation can reduce spasticity and
improve motor function in the upper extremity.
24. There is limited (Level 2) evidence that treatment with ethyl alcohol improves elbow and finger
PROM and can decrease spasticity in the upper extremity in stroke survivors.
25. There is strong (Level 1a) evidence that physical therapy does not reduce spasticity in the upper
extremity.
26. There is limited (Level 2) evidence that shock wave therapy can reduce tone in the upper
extremity.
27. There is moderate (Level 1b) evidence that tolperisone can reduce spasticity following stroke.
28. There is strong (Level 1a) evidence that EMG/Biofeedback therapy is not superior to other forms
of treatment.
29. There is conflicting (Level 4) evidence that treatment with TENS in the upper extremity improves
a variety of outcomes, including motor recovery, spasticity and ADLs.
30. There is strong (Level 1a) evidence that FES treatment improves upper extremity function in
chronic stroke.
31. There is moderate (Level 1b) evidence that EMG-triggered FES is not superior to cyclic FES.
32. There is conflicting (Level 4) evidence that stimulants can improve upper extremity impairment
following stroke.
33. There is conflicting (Level 4) evidence that levodopa can improve upper extremity motor
function following stroke.
34. There is strong (Level 1a) evidence that a single dose of either a SSRI or NARI can enhance short-term manual dexterity in the affected hand following stroke.
35. There is moderate (Level 1b) evidence that a 90-day course of SSRIs initiated acutely following
stroke improves motor recovery of the upper extremity.
36. There is moderate (Level 1b) evidence that intermittent pneumatic compression does not reduce
hand edema following stroke. There is limited (Level 2) evidence that both neuromuscular nerve
stimulation and continuous passive motion help to reduce hand edema compared to limb
elevation