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 TUG. Show all posts
Showing posts with label TUG. Show all posts

Monday, October 11, 2021

Effects of a Novel Movement-to-Music (M2M) Intervention on Physical and Psychosocial Outcomes in People Poststroke: A Randomized Controlled Trial

 If we can't even get music listening into stroke hospitals having therapists come up with an exercise program to music will never occur.

Effects of a Novel Movement-to-Music (M2M) Intervention on Physical and Psychosocial Outcomes in People Poststroke: A Randomized Controlled Trial

https://doi.org/10.1016/j.arrct.2021.100160Get rights and content
Under a Creative Commons license
open access

Abstract

Objective

To investigate effects of a 12-week movement-to-music (M2M) intervention on physical and psychosocial outcomes in people poststroke.

Design

Two-arm randomized controlled trial.

Setting

A community-based fitness facility.

Participants

Participants (N=47) with stroke between 18 and 65 years old were randomized to M2M (n=23) or waitlist control (n=24).

Interventions

Participants in M2M completed three 60-minute exercise sessions per week for 12 weeks. Controls received biweekly educational newsletters via mail.

Main Outcome Measures

Primary outcomes included Six-Minute Walk Test (6MWT, in meters), Five Times Sit-to-Stand Test (FTSST, in seconds) and Timed Up and Go (TUG, in seconds). Secondary outcomes were self-reported measures using PROMIS Fatigue and Pain Interference Short Form 8a. Outcomes were collected at baseline and post-intervention. Analyses involved descriptive statistics and adjusted linear mixed models.

Results

Mixed models adjusted for the respective baseline values and demographic variables showed that M2M participants had longer 6MWT distance (LSM difference [95% CI]=14.5 [-12.9, 42.0]), more FTSST time (2.0 [-4.5, 8.5]), and less fatigue (-3.0 [-7.2, 1.2]) compared to control post-intervention. When controlling for baseline TUG and demographic variables, there were larger increase in 6MWT distance (37.9 [-22.7, 98.6]), lower FTSST time (-6.1 [-18.5, 6.2]), and decrease in fatigue (-6.5 [-13.1, 0.2]) in M2M compared to controls. Moderate effect sizes were observed for improving 6MWT (d=0.6), FTSST (d=-0.6), and fatigue (d=-0.6). There was no group difference in change in TUG time and pain interference, with trivial effect sizes (d=-0.1).

Conclusion

Movement-to-music may be a valuable exercise form for adults with stroke. Future studies are needed to determine optimal exercise doses for improving health and function in this population.

 

Sunday, September 26, 2021

Relation of exercise capacity to comprehensive physical functions in individuals with ischemic stroke

Lots of stroke jargon but nothing on how to improve TUG(Timed Up and Go) or 6MWT(6 Meter Walk Test). In total I see absolutely nothing here for stroke recovery but useless assessments.

 Relation of exercise capacity to comprehensive physical functions in individuals with ischemic stroke

NeuroRehabilitation , Volume 48(3) , Pgs. 375-383.

NARIC Accession Number: J86985.  What's this?
ISSN: 1053-8135.
Author(s): Ahn, So-Young ; Lee, Nam-Gi ; Lee, Tae-Heon.
Publication Year: 2021.
Number of Pages: 9.
Abstract: Study aimed to identify a physical parameter among physical parameters related to motor function, trunk control, balance, and motor performance and activities that has the most significant relationship to exercise capacity in individuals with ischemic stroke. In total, 241 ischemic stroke patients were evaluated. Exercise capacity was assessed using the 6-Minute Walk Test (6MWT). Physical parameters were assessed with the Montreal Cognitive Assessment (MoCA), Fugl-Meyer Assessment-Lower Extremity motor function (FMA-LE), Trunk Impairment Scale (TIS), Berg Balance Scale (BBS), Timed Up and Go test (TUG), 10-Meter Walk Test (10 MWT), Functional Ambulation Category (FAC), and Functional Independence Measure (FIM). Analyses revealed that the 6MWT was significantly correlated with the FMA-LE, BBS, TUG, 10MWT, FAC, and FIM, indicating negative or positive moderate correlations. Additionally, the FMA-LE, TIS, BBS, TUG, 10MWT, FAC, and FIM, excluding the 6MWT, showed moderate-to-strong correlations with all of the other outcome measures, while the MoCA showed significant correlations only with the BBS and FIM. Results indicate that exercise capacity has the most significant relationship with the TUG parameter (functional mobility) in stroke patients. Additionally, findings suggest that significant relationships between the 6MWT and other comprehensive physical functions measurements are closely related to walking ability in individuals with stroke.
Descriptor Terms: AMBULATION, MEASUREMENTS, MOBILITY, OUTCOMES, PHYSICAL EVALUATION, PHYSIOLOGY, STROKE.


Can this document be ordered through NARIC's document delivery service*?: Y.

Citation: Ahn, So-Young , Lee, Nam-Gi , Lee, Tae-Heon. (2021). Relation of exercise capacity to comprehensive physical functions in individuals with ischemic stroke.  NeuroRehabilitation , 48(3), Pgs. 375-383. Retrieved 9/26/2021, from REHABDATA database.
 

Friday, August 26, 2016

Robot-aided assessment of lower extremity functions: a review

Are your therapists doing ANY objective measurements of your lower limb problems. Or are they using subjective crap like Timed Up and Go (TUG) Test
which doesn't look at quality of walking at all.
Or the various minute walking tests.
Or the Berg Balance Scale which I pretty much failed at in the standing on one leg category. Nothing in there was objective enough to help in your rehabilitation. We never worked on any of the testing categories to try to become better. So the test was totally useless. 
Once again proving that everything in stroke is still a clinical research project of one - YOU, and you never signed any release forms for that testing.

Robot-aided assessment of lower extremity functions: a review 

  • Serena MaggioniEmail authorView ORCID ID profile,
  • Alejandro Melendez-Calderon,
  • Edwin van Asseldonk,
  • Verena Klamroth-Marganska,
  • Lars Lünenburger,
  • Robert Riener and
  • Herman van der Kooij
Journal of NeuroEngineering and Rehabilitation201613:72
DOI: 10.1186/s12984-016-0180-3
Received: 8 January 2016
Accepted: 21 July 2016
Published: 2 August 2016

Abstract

The assessment of sensorimotor functions is extremely important to understand the health status of a patient and its change over time. Assessments are necessary to plan and adjust the therapy in order to maximize the chances of individual recovery. Nowadays, however, assessments are seldom used in clinical practice due to administrative constraints or to inadequate validity, reliability and responsiveness. In clinical trials, more sensitive and reliable measurement scales could unmask changes in physiological variables that would not be visible with existing clinical scores.
In the last decades robotic devices have become available for neurorehabilitation training in clinical centers. Besides training, robotic devices can overcome some of the limitations in traditional clinical assessments by providing more objective, sensitive, reliable and time-efficient measurements. However, it is necessary to understand the clinical needs to be able to develop novel robot-aided assessment methods that can be integrated in clinical practice.
This paper aims at providing researchers and developers in the field of robotic neurorehabilitation with a comprehensive review of assessment methods for the lower extremities. Among the ICF domains, we included those related to lower extremities sensorimotor functions and walking; for each chapter we present and discuss existing assessments used in routine clinical practice and contrast those to state-of-the-art instrumented and robot-aided technologies. Based on the shortcomings of current assessments, on the identified clinical needs and on the opportunities offered by robotic devices, we propose future directions for research in rehabilitation robotics. The review and recommendations provided in this paper aim to guide the design of the next generation of robot-aided functional assessments, their validation and their translation to clinical practice.
 

Tuesday, August 2, 2016

Sub-sensory vibratory noise augments the physiologic complexity of postural control in older adults

What is your doctor doing to determine if this would make you walk better and have better balance? How long before s/he updates your walking protocol?
http://jneuroengrehab.biomedcentral.com/articles/10.1186/s12984-016-0152-7
  • Junhong ZhouEmail author,
  • Lewis Lipsitz,
  • Daniel Habtemariam and
  • Brad Manor
Journal of NeuroEngineering and Rehabilitation201613:44
DOI: 10.1186/s12984-016-0152-7
Received: 23 December 2015
Accepted: 22 April 2016
Published: 3 May 2016

Abstract

Background

Postural control requires numerous inputs interacting across multiple temporospatial scales. This organization, evidenced by the “complexity” contained within standing postural sway fluctuations, enables diverse system functionality. Age-related reduction of foot-sole somatosensation reduces standing postural sway complexity and diminishes the functionality of the postural control system. Sub-sensory vibrations applied to the foot soles reduce the speed and magnitude of sway and improve mobility in older adults. We thus hypothesized that these vibration-induced improvements to the functionality of the postural control system are associated with an increase in the standing postural sway complexity.

Method

Twelve healthy older adults aged 74 ± 8 years completed three visits to test the effects of foot sole vibrations at 0 % (i.e., no vibration), 70 and 85 % of the sensory threshold. Postural sway was assessed during eyes-open and eyes-closed standing. The complexity of sway time-series was quantified using multiscale entropy. The timed up-and-go (TUG) was completed to assess mobility.

Results

When standing without vibration, participants with lower foot sole vibratory thresholds (better sensation) had greater mediolateral (ML) sway complexity (r 2 = 0.49, p < 0.001), and those with greater ML sway complexity had faster TUG times (better mobility) (r 2 = 0.38, p  < 0.001). Foot sole vibrations at 70 and 85 % of sensory threshold increased ML sway complexity during eyes-open and eyes-closed standing (p  < 0.0001). Importantly, these vibration-induced increases in complexity correlated with improvements in the TUG test of mobility (r 2 = 0.15 ~ 0.42, p < 0.001 ~ 0.03).

Conclusions

Sub-sensory foot sole vibrations augment the postural control system functionality and such beneficial effects are reflected in an increase in the physiologic complexity of standing postural sway dynamics.


Tuesday, July 14, 2015

Passive standing as an adjunct rehabilitation intervention after stroke: a randomized controlled trial

If this is truly that great write it up as a stroke protocol, publish it and distribute it around the world.
http://www.archivesphysiotherapy.com/content/5/1/2
Francesco Ferrarello1*, Gabriella Deluca2, Assunta Pizzi2, Carlo Baldini2, Francesca Iori2, Niccolò Marchionni3 and Mauro Di Bari3
1 Functional Rehabilitation Unit, Azienda USL 4, Via Cavour 118/120, Prato, 59100, Italy
2 Fondazione Don Carlo Gnocchi ONLUS-IRCCS, Florence, Italy
3 Research Unit of Medicine of Aging, Department of Experimental and Clinical Medicine, University of Florence, and Azienda Ospedaliero-Universitaria Careggi, Florence, Italy
For all author emails, please log on.
Archives of Physiotherapy 2015, 5:2  doi:10.1186/s40945-015-0002-0
The electronic version of this article is the complete one and can be found online at: http://www.archivesphysiotherapy.com/content/5/1/2

Received:31 January 2015
Accepted:9 April 2015
Published:8 July 2015
© 2015 Ferrarello et al.

This is an Open Access article distributed under the terms of the Creative Commons Attribution License (http://creativecommons.org/licenses/by/4.0), which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly credited. The Creative Commons Public Domain Dedication waiver (http://creativecommons.org/publicdomain/zero/1.0/) applies to the data made available in this article, unless otherwise stated.

Abstract

Background

Early physical rehabilitation enhances functional recovery in stroke survivors. Supported standing is a common adjunctive therapeutic practice in subjects with several central nervous diseases who are unable to stand actively. Data on the effect of supported positioning on standing frames in individuals with recent stroke are scarce and contradictory.

Objectives

To verify if the addition of supported standing practice (SSP), delivered by means of a standing frame in two durations, to conventional physical therapy (CPT), may improve motor function, autonomy, and mobility in individuals with disability due to recent stroke.

Methods

After baseline assessment, 75 participants with severe disability due to stroke, all receiving CPT, were randomly assigned to adjunctive 20 or 40 min of SSP, or CPT only (control). Motor function, autonomy, and mobility were assessed before and after training, and three months later.

Results

All participants assessed received the planned dose of intervention. No adverse events of SSP were detected. Most outcome measures improved from baseline through the end of treatment and in the follow-up in all groups; the extent of change was comparable across the three randomization groups.

Conclusions

In this randomized trial, SSP was unable to provide any sizeable adjunctive benefit, above and beyond CPT, in subjects with recent stroke.
Keywords:
Stroke; Supported standing; Randomized controlled trial

Background

Stroke is a major cause of disability and death worldwide [1], with only a small proportion of survivors achieving full functional recovery after acute event. Indeed, at 40 % of survivors have difficulties in performing basic self-care tasks after 6 months [2], and more than 30 % report participation restrictions as long as 4 years after stroke [3]. Systematic reviews show that organized multidisciplinary care and rehabilitation are effective in the early phase of a stroke, improving survival and independence, and reducing length of hospital stay and need for institutionalization [4].
Physical rehabilitation enhances substantially the functional recovery in stroke survivors, and improvements are greater with earlier beginning and higher intensity of rehabilitation [5]. Early mobilization lessens the likelihood of acute phase complications (e.g., pneumonia, pressure sores, deep vein thrombosis) and usually begins when clinical conditions are stable [6]. Beyond sitting, the standing position brings additional benefits such as prevention of hip and knee flexors contractures, circulatory training, autonomic nervous system stimulation, and sensory activation [7]. Moreover, recovery of the ability to stand up and sustain load on the affected limb is crucial to gait training and recovery of upper limb functionality [8], [9]. Supported standing on tilt table or standing frame is an adjunctive therapeutic practice commonly adopted in subjects with several central nervous diseases who are unable to stand actively. Its aim is to improve antigravity muscles strength and head and trunk postural control, maintain standing ability, and prepare for gait training [10].
Data on the effect of supported positioning on standing frames in patients with recent stroke are scarce and contradictory. In a randomized controlled trial (RCT), 14 sessions of supported standing, added with flexible duration and schedules to conventional rehabilitation within nine weeks after stroke onset, did not significantly improve functional status [11]. However, potential weaknesses should be recognized in this study: the intervention was administered late in the course of the disease, its intensity was low, its duration was left to the therapists’ discretion [11], and the first post-treatment assessment often did not coincide with the end of the intervention [10]. In another pilot RCT, an intervention combining passive standing on a variety of stabilizers and task training, achieved some improvement in balance [12]. Thus, we deemed as necessary a study conducted with more stringent selection criteria and a rigorously controlled intensity of the intervention, in order to ascertain the merit of passive standing in post-stroke rehabilitation.
We conducted the present RCT to verify whether the addition to early conventional physical therapy (CPT) of supported standing practice (SSP) delivered by means of a standing frame in two durations, improves motor function, autonomy, and mobility in individuals with disability due to recent stroke.

Methods

The reporting of this study conforms to the CONSORT (Consolidated Standards of Reporting Trials) Statement for non-pharmacologic trials [13]. The study was approved by the IRCCS Fondazione Don Gnocchi ethics committee.

Subjects

Persons with recent stroke, admitted for early rehabilitation to the inpatient Neurology Unit of the IRCCS Fondazione Don Gnocchi in Florence, Italy, from April 2011 to February 2012, were screened for enrollment. Inclusion criteria were: (1) first ever ischemic or hemorrhagic stroke, (2) age ≥18 years, (3) admission within 4 weeks from stroke onset, (4) severe functional limitation in walking (score 0 or 1 in the Functional Ambulation Classification, FAC) [14], (5) tolerance to the standing frame of at least 10 min (assessed two days after admission), (6) stable clinical conditions, (7) adequate participation and cognitive capacity, and (8) ability to provide informed consent.
Exclusion criteria were: (1) clinical contraindications to prolonged upright position (e.g. postural hypotension), (2) previous stroke, (3) severe limitations of the range of motion, particularly the lack of hip and knee extension, and ankle dorsiflexion, (4) the presence of recent fractures of the pelvis or lower limb (if full weight- bearing was not allowed) and (5) any other co-morbidity or disability that would preclude participation in the training program. Eligible subjects signed an informed consent conforming to the Helsinki Declaration, which contained detailed information on study design and data management.

Study design and procedures

After inclusion and baseline assessment, participants were stratified according to the FAC score (0 and 1). They were then randomly assigned to either adjunctive 20 or 40 min of SSP (experimental interventions), or standard (see below) CPT only (control). The random sequence was generated by an investigator not involved in participants’ assessment (MDB) using a web-based application (http://www.randomizer.org). Allocation assignment was kept concealed using serially numbered, opaque, sealed envelopes.
Baseline and follow-up evaluations were performed by an independent physical therapist (GD), blinded to group allocation and otherwise uninvolved in the study. Treatments were administered by physical therapists five days a week for three weeks, in an inpatient setting. Assessments were done at enrollment (T0), at the end of the 3-week treatment (T1), and three months later (T2).
A formal sample size calculation was not performed because of lack of adequate preliminary data on the expected effect size. In particular, the present RCT differed from previous studies in the outcome measures chosen, in the overall duration of the treatment period and in the double dosing (20 and 40 min/day) of the intervention.

Experimental treatment

Participants randomized to the 40-min daily SSP treatment received 2 20-min sessions (morning and afternoon). The standing frame STANDY (Ormesa®, www.ormesa.com) was utilized for the experiment. Equipped with heel rests, knee pads and back rest (both adjustable in width, depth, and height) it allows a flexible and safe static regimen.
Patients’ positioning on the standing and monitoring were conducted by the treating physical therapists. Exercise duration was timed and inconveniences or discomforts were recorded. The standing session was not performed, or could be interrupted, if participants showed intolerance or hypotension.

Conventional physical therapy treatment

All participants underwent individual CPT sessions, which included 60 min of neuromuscular and musculoskeletal interventions, and practice of functional activities [15]. Moreover, 20 min of passive cycling (upper- and/or lower- limbs), hydrokinetic and occupational therapy were administered, as well as cognitive and speech therapy when needed.

Data

Demographic and main clinical characteristics (stroke type, days from event, and affected side) were recorded. Stroke severity was assessed with the National Institute of Health Stroke Scale (NIHSS). The clinical history of participants was investigated for any contraindications to upright position. Goniometric measurement of the range of movement of the lower limbs was performed to exclude limitations that might affect the ability to stand. Moreover, the ability to control the trunk in an upright position (sitting and standing) was recorded. Tolerance to the standing frame was assessed by measuring blood pressure, heart and respiratory rate first in the supine and seated positions, and then after 5 min of standing. Signs and symptoms of hypotension were monitored. As a safety measure, blood pressure and heart rate were recorded also during the interventions.

Primary outcome measures

The Fugl-Meyer Assessment of Motor Recovery after Stroke - motor domain (FM) scale, the Functional Independence Measure (FIM), and the FAC were chosen as primary outcome measures.
The FM, used in both clinical and research settings, is one of the most widely used quantitative measures of motor impairment, with excellent intra- and inter- rater reliability and construct validity, particularly of the motor domain, as shown by numerous studies [16]. The motor domain includes items measuring movement, coordination, and reflex action about upper- and lower- limb; motor score ranges from 0 (hemiplegia) to 100 points (normal motor performance), divided into 66 points for the upper extremity and 34 points for the lower extremity. The FIM measures the level of disability and indicates how much assistance is required to perform activities of daily living [17]. The FAC categorizes subjects according to basic motor skills necessary for functional ambulation [14].

Secondary outcome measures

The Modified Ashworth scale (MAS), the Timed-Up-and-Go test (TUG) at three months (T2), the drop in systolic blood pressure from supine to standing position, and the ability to control the trunk while sitting or standing were taken as secondary outcome measures.
The MAS [18] evaluates spasticity in patients with lesions of the central nervous system; knee flexors and extensors, ankle dorsal and plantar flexors, and hip adductors of the affected side were assessed. The TUG is a widely used mobility test, which requires that a person rises from a chair, walks three meters, turns around, walks back to the chair, and sits down again on the chair, while being timed [19].
Moreover, the Trunk Control Test (TCT) [20], which examines four simple aspects of trunk movement, was added to the protocol after the study began, and was therefore administered in a subsample.

Statistical analysis

Data were analyzed by an independent investigator, blind to group allocation. Sample characteristics were analyzed by descriptive statistics. Differences between groups in baseline demographic and pre-training characteristics were examined using one-way ANOVA for continuous and the chi-square test for ordinal and categorical variables respectively, taking into account trends as appropriate. To perform the between-group comparisons, a two-way ANOVA for repeated measures with group x time interaction was used. The Kruskal-Wallis test was utilized to highlight the between-group differences in the TUG test three months after the end of treatment.
Analyses were performed according to the intention- to- treat (ITT) and the per- protocol (PP) principles [21]. For ITT analysis missing data were dealt with by using the last- observation- carried- forward method [21]. The IBM SPSS Statistics for Windows, (version 20.0; IBM Corp, Armonk, NY) was utilized for calculations. The significance level was set at a p value of <0 .05.="" p="">

Results

Characteristics of the sample

Of 213 individuals with recent stroke screened, 138 did not fulfill the enrolment criteria and were therefore excluded (Fig. 1), leaving a final sample of 75 participants (37 females), who were randomly assigned to 40 min SSP (n = 31), 20 min SSP (n = 24), or control (n = 20). Age ranged from 18 to 97 years (mean 74.0); days from event ranged from 5 to 22 days (mean 12.3). Cases of hemorrhagic etiology, as well as of right-sided hemispheric lesion, were 27 (36 %); at baseline 36 (49 %) participants were not able to manage trunk control while standing, and 56 (72 %) could not ambulate or could ambulate only on parallel bars (FAC category 0). Baseline participants’ characteristics were comparable across the three randomization groups (Table 1). At the end of the 3-week treatment period (T1) and three months later (T2), 67 and 36 participants were assessed, respectively (Fig. 1). All subjects assessed received the planned dose of intervention and had complete data. No adverse events occurred; one participant withdrew because of intolerance to the standing frame.
thumbnailFig. 1. Study flow chart. Abbreviations: FAC = Functional Ambulation Categories; T0 = baseline; T1 = end of treatment; T2 = follow-up (3 months)
Table 1. Baseline characteristics of the study groups
The results of the ITT and PP analysis were comparable. The data shown in tables and figures refer to the PP analysis. As a whole, all participants significantly improved their condition. In between-group comparisons, the study groups obtained similar scoring in final assessment in all outcome measures, both at the end of treatment and three months later (Table 2, Figs. 2 and 3).
Table 2. Effects of experimental and conventional interventions
thumbnailFig. 2. Mean outcome measures score as a function of time in the three groups. Error bars represent the standard error. The TCT was administered in a subsample. Figure legend. CTR = Control; 20’SSP = 20/min Supported Standing Practice; 40’SSP = 40/min Supported Standing Practice. Abbreviations. As in Table 2
thumbnailFig. 3. T2 Timed Up and Go Test, between-groups comparison

Discussion

Supported standing programs are routinely used in many settings, different clinical conditions and age groups [22]. Being passively supported in the upright position by adaptive equipment is a common intervention for individuals who have inadequate postural control or lower limb strength [10]. The stroke rehabilitation community showed interest in the topic, in fact in a systematic review exploring the issue in adults with upper motor neuron injury, slightly more than half of the participants in the studies included had stroke [10]. Evidence related to the effectiveness of SSP in neurorehabilitation is controversial and few firm conclusions can be drawn from systematic reviews, limited to some positive effects reported in the presence of stabilized symptoms [10], [22], [23].
This study shows that the addition of SSP for 20 or 40 min to CPT, administered in an early phase, does not improve motor function, autonomy, and mobility in individuals with disability due to a stroke. Although outcome measures improved significantly from baseline through the end of treatment and in the follow-up, the extent of change was unrelated to the assignment group. At the same time, the SSP had no adverse effects.
These findings are consistent with those of the largest previous study on this issue [11], which had been considered as inconclusive because of methodological limitations, such as late application and poor standardization of the intervention [10], [11].
In our study, we tried to overcome some of the weaknesses that limited previous experiments [10]–[12], by narrowing the time gap to enrollment, standardizing and increasing the dose administered, and conducting the first post-treatment assessment soon at the end of the intervention. We administered the adjunctive SSP within 22 days from event and with a precise delivered dose, which might reflect clinical practice for adopted session duration, frequency, and assistive device [10].
As the comparisons with other studies are difficult, because baseline participants’ disability level or type of treatment administered were not similar [12], [24], [25], it was not possible to estimate the sample size in our RCT and, therefore, it is possible that our study is under-powered. However, the absence of any trend towards improvement and of a dose-effect relationship (40 min vs. 20 min SSP) in any of our outcome measures discourages the design of further RCTs with larger sample size.

Conclusions

In conclusion, this RCT failed to show any functional benefit of SSP in the rehabilitation of recent stroke. Nevertheless , enough support exists for the use of a standing device as part of a comprehensive 24-h postural management and activity program for individuals chronically ill with severely limited mobility [23]. We cannot exclude that, as shown in other neurological conditions such as multiple sclerosis [26] or cerebral palsy [23], SSP might provide some benefit in the stabilized phase of the disease, to limit the impact of long-term complications on overall well-being and quality of life [27], [28]. However, large, high quality studies are required to definitively verify these potential, late positive effects, which have so far limited support from scientific evidence.(Weasel words again, allowing them to never actually do any work that might directly help survivors. A great stroke association would nail these people to the wall for lack of initiative and leadership.)

Tuesday, April 14, 2015

Auto detection and segmentation of physical activities during a Timed-Up-and-Go (TUG) task in healthy older adults using multiple inertial sensors

This would be so f*cking easy for our stroke associations to duplicate for stroke survivors. No thinking involved. It would provide vast amounts of information to figure out how to help us walk better.  But it won't occur.
http://www.jneuroengrehab.com/content/12/1/36/abstract
Hung P Nguyen1, Fouaz Ayachi1, Catherine Lavigne–Pelletier1, Margaux Blamoutier2, Fariborz Rahimi3, Patrick Boissy4, Mandar Jog5 and Christian Duval1*
For all author emails, please log on.
Journal of NeuroEngineering and Rehabilitation 2015, 12:36  doi:10.1186/s12984-015-0026-4
Published: 11 April 2015

Abstract (provisional)

Background Recently, much attention has been given to the use of inertial sensors for remote monitoring of individuals with limited mobility. However, the focus has been mostly on the detection of symptoms, not specific activities. The objective of the present study was to develop an automated recognition and segmentation algorithm based on inertial sensor data to identify common gross motor patterns during activity of daily living. 
Method A modified Time-Up-And-Go (TUG) task was used since it is comprised of four common daily living activities; Standing, Walking, Turning, and Sitting, all performed in a continuous fashion resulting in six different segments during the task. Sixteen healthy older adults performed two trials of a 5 and 10 meter TUG task. They were outfitted with 17 inertial motion sensors covering each body segment. Data from the 10 meter TUG were used to identify pertinent sensors on the trunk, head, hip, knee, and thigh that provided suitable data for detecting and segmenting activities associated with the TUG. Raw data from sensors were detrended to remove sensor drift, normalized, and band pass filtered with optimal frequencies to reveal kinematic peaks that corresponded to different activities. Segmentation was accomplished by identifying the time stamps of the first minimum or maximum to the right and the left of these peaks. Segmentation time stamps were compared to results from two examiners visually segmenting the activities of the TUG.  
Results We were able to detect these activities in a TUG with 100% sensitivity and specificity (n = 192) during the 10 meter TUG. The rate of success was subsequently confirmed in the 5 meter TUG (n = 192) without altering the parameters of the algorithm. When applying the segmentation algorithms to the 10 meter TUG, we were able to parse 100% of the transition points (n = 224) between different segments that were as reliable and less variable than visual segmentation performed by two independent examiners. 
Conclusions The present study lays the foundation for the development of a comprehensive algorithm to detect and segment naturalistic activities using inertial sensors, in hope of evaluating automatically motor performance within the detected tasks.

The complete article is available as a provisional PDF. The fully formatted PDF and HTML versions are in production.