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Trial registered on ANZCTR
Registration number
ACTRN12613001136796
Ethics application status
Approved
Date submitted
3/07/2013
Date registered
11/10/2013
Date last updated
30/03/2025
Date data sharing statement initially provided
30/03/2025
Date results provided
30/03/2025
Type of registration
Retrospectively registered
Titles & IDs
Public title
Effective sensory rehabilitation after stroke: Targeting viable brain networks.
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Scientific title
Do stroke survivors with impaired body sensations who undertake sensory rehabilitation demonstrate different patterns of functional connectivity in the brain associated with improvements in sensory function depending on lesions of cortical or subcortical somatosensory areas and approach to training?
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Secondary ID [1]
282560
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Nil
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Universal Trial Number (UTN)
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Trial acronym
CoNNECT - Connecting New Networks for Everyday Contact through Touch
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Linked study record
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Health condition
Health condition(s) or problem(s) studied:
Somatosensory processing deficit after stroke
289263
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Condition category
Condition code
Stroke
289591
289591
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0
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Ischaemic
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Stroke
289845
289845
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0
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Haemorrhagic
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Physical Medicine / Rehabilitation
289895
289895
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0
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Other physical medicine / rehabilitation
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Intervention/exposure
Study type
Interventional
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Description of intervention(s) / exposure
Stroke survivors will be assessed at least 3 months post stroke for clinical and imaging outcomes, then randomized into one of 3 treatment packages of 2X6-week intervention/no intervention phases.
Arm 1: The first package involves 6 weeks of no training followed by 6 weeks of transfer enhanced training of body sensation.
Arm 2: The second package involves 6 weeks of stimulus specific training of touch sensation followed by 6 weeks of transfer enhanced training of body sensation.
Arm 3: The third package involves 6 weeks of transfer enhanced training of body sensation, followed by 6 weeks of no training.
Each training phase involves 15 training sessions at a rate of approximately 3 times per week and duration of 60 minutes per session. Training sessions are one on one with an experienced research therapist. Each participant has an individual training log, where the research therapist stores forms to record each session in order to monitor their progress.
Stimulus specific training involves graded and repeated learning-based discrimination training of specific sensory stimuli, ie. texture grids.
Transfer enhanced training involves learning-based discrimination training of a variety of sensory attributes, across a matrix of sensory tasks including common textures, limb positions and everyday objects. A variety of stimuli and learning conditions, tuition of training principles and feedback on the act of transfer to novel stimuli are used to facilitate transfer.
Transfer enhanced training also involves application of training principles to 2 occupational tasks identified by the client.
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Intervention code [1]
287244
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Rehabilitation
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Comparator / control treatment
Comparisons will be made between stroke groups in the intervention and non-intervention phases. A control group of age and gender matched healthy volunteers will provide a comparison of typical sensory networks and processing before and after a 6 week interval.
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Control group
Active
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Outcomes
Primary outcome [1]
289680
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Tactile Discrimination Test (TDT) - participants are required to discriminate differences in finely graded plastic ridged surfaces using a three-alternative forced choice design. Excellent test-retest reliability (r=0.92). Carey LM, Oke LE, Matyas TA. Impaired touch discrimination after stroke: a quantitative test. Neurorehabil Neural Repair. 1997;11:219-32.
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Assessment method [1]
289680
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Timepoint [1]
289680
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Pre- and post- 6 week stimulus specific sensory intervention/no intervention phases and at 3 months follow up
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Primary outcome [2]
289681
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The Standardized Somatosensory Deficit score (SSD) - a composite index of functional somatosensory discrimination capacity. The composite index of sensory function is derived from standardized scores of texture discrimination (Fabric Matching Test), limb position sense (Wrist Position Sense Test) and tactile object recognition (functional Tactile Object Recognition Test). Each component measure has age-adjusted normative standards, high reliability (r = 0.85 to 0.92) and good discriminative test properties. Carey LM, Macdonnell R, Matyas D. SENSe: Study of the Effectiveness of Neurorehabilitation on Sensation. A randomized controlled trial. Neurorehabil Neural Repair. 2011;25:304-313.
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Assessment method [2]
289681
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Timepoint [2]
289681
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Pre- and post- 6 week transfer enhanced training intervention/no intervention phases and at 3 months follow up
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Primary outcome [3]
289682
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Strength of functional connections in somatosensory neural networks - neurimaging outcome
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Assessment method [3]
289682
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Timepoint [3]
289682
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Pre- and post- 6 week intervention/no intervention phases
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Secondary outcome [1]
303303
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Upper limb function (9-hole peg test, Action Research Arm Test, Motor Activity Log-Short Version)
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Assessment method [1]
303303
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Timepoint [1]
303303
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Pre- and post- 6 week intervention/no intervention phases and at 3 month follow up.
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Secondary outcome [2]
303304
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Functional independence (Modified Rankin Scale, Stroke Impact Scale)
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Assessment method [2]
303304
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Timepoint [2]
303304
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Pre- and post- 6 week intervention/no intervention phases and at 6 month follow up.
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Eligibility
Key inclusion criteria
Stroke patients:
1) first episode of cortical or sub-cortical stroke;
2) Somatosensory impairment clinically apparent or queried;
3) Medically stable;
4) able to give informed consent and comprehend simple instructions;
5) right hand dominant
Healthy participants:
1) medically stable;
2) able to give informed consent and comprehend simple instructions;
3) right hand dominant
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Minimum age
18
Years
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Maximum age
90
Years
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Sex
Both males and females
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Can healthy volunteers participate?
No
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Key exclusion criteria
Stroke patients:
1) Brainstem stroke;
2) Previous neurological dysfunction or medical history that impairs hand function or precludes MRI;
3) Peripheral neuropathy in the upper limbs;
4) Evidence of neglect on standard neuropsychological tests;
5) Not suitable for MRI.
Healthy participants:
1) any history of neurological, psychiatric or somatosensory impairment;
2) previous neurological dysfunction or medical history that impairs hand function or precludes MRI.
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Study design
Purpose of the study
Treatment
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Allocation to intervention
Randomised controlled trial
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Procedure for enrolling a subject and allocating the treatment (allocation concealment procedures)
Patients with a somatosensory impairment will be assessed at least 3 months post-stroke for clinical and imaging outcomes and randomized into one of 3 treatment packages of 2 x 6-week intervention/no intervention phases.
They will be matched for lesion location (cortical vs subcortical), and severity of somatosensory impairment at baseline. The assessing therapist and data analyst will be blinded to group allocation and other identifying information.
Allocation to intervention is concealed with independent assignment managed centrally by a researcher who does not have any contact with stroke survivors and only remote contact with treating therapists to inform them of allocation via sealed opaque envelopes or electronic mail just prior to commencement of intervention.
Randomisation is computer generated with minimisation strategies to control for lesion location (cortical/subocrtical) and severity of somatosensory impairment at baseline (mild/moderate/severe).
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Methods used to generate the sequence in which subjects will be randomised (sequence generation)
Randomisation is computer generated with minimisation strategies to control for lesion location (cortical/subocrtical) and severity of somatosensory impairment at baseline (mild/moderate/severe).
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Masking / blinding
Blinded (masking used)
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Who is / are masked / blinded?
The people receiving the treatment/s
The people assessing the outcomes
The people analysing the results/data
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Intervention assignment
Parallel
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Other design features
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Phase
Not Applicable
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Type of endpoint/s
Efficacy
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Statistical methods / analysis
POWER ANALYSIS OF SAMPLE SIZE (based on pilot data)
-Functional connectivity (FC): Our pilot studies revealed large differences in primary and secondary somatosensory cortex (SI & SII) FC (mean differences in T scores) over no intervention (n=9) and intervention (n=6) periods, with a Cohen's d of 1.5. Assuming a within-group SD for change scores of 1, the effect size index for this interaction contrast (Cohen's f), is 0.866. This effect would be readily detected with a total sample size of 48, with a power exceeding 0.99. Even with an effect size half of that estimated (f=0.433) a sample of 44 is required, for a power of 0.8 and an alpha of 0.05. Thus the study is well powered (n=72), for this comparison. The second hypothesis will involve exploratory analysis of functional connectivity maps involving 6 seeds. Inclusion of 24 in each of the treatment package groups will permit comparison between (Stimulus Specific Training) SST and (Transfer Enhanced Training) TET subgroups (n=48) as well as an interaction effect with lesion location.
- Structural connectivity: The anticipated effect size for the proportion of the overall variance predicted by the model,
i.e. R-squared, is based on a published model of fibre tract integrity in motor recovery that found an R-squared of 0.7, suggesting a power in excess of 0.95 with a total of 11 patients. We will employ two indexes of structural connectivity to predict change in the behavioural score. When n=48, alpha= 0.05, and power is 0.80, R-squared values of 0.177 (i.e. R=0.42) or more could be detected when fitting two-predictor variables.
-Healthy controls (n=72) will permit characterization of functional and structural connectivity maps for interpretation and direct comparison with stroke groups.
DATA ANALYSES
Testing H1: Impact of lesion location on interhemispheric functional connectivity following sensory rehabilitation:
Strength of interhemispheric FC between SI-SI and thalamic (Th) seed pairs will be compared pre-post intervention in subgroups with cortical or subcortical sensory lesions. The design, 2 lesion levels (cortical, subcortical) x 2 treatment conditions (training, no training) x 2 interhemispheric pathways (SI, thalamic) x 2 test occasions (pre, post), simplifies to four difference scores contrasting the pre-post change in SI-SI with the pre-post change in Th-Th for each of the four groups (2 lesion levels x 2 treatment conditions). Planned interaction comparisons will permit statistical investigation of two competing predictions: (i) that therapy facilitates the spared functional interhemispheric connections, i.e. results in increases in SI-SI, but not Th-Th after subcortical lesions, versus increases in Th-Th, but not SI-SI, after cortical lesions, or (ii) that therapy restores interhemispheric connections, when the reverse would be observed, i.e. increases in Th-Th after subcortical lesions and in SI-SI after cortical. We will also test independently for differences between no treatment and each treatment type (SST, TET) to verify the hypothesis for each. The extent of clinical improvement (change in tactile and sensory capacity score) will be analyzed for its correlation with interhemispheric FC of SI and thalamus.
Testing H2: Differential impact of rehabilitation approach on functional connectivity (FC) maps:
Change in FC maps over the initial intervention period (SST or TET) will be calculated as "difference maps", i.e. within-subject index of change. These maps, seeded in SI, SII and Th bilaterally, will permit exploratory investigation of connectivity from these regions of interest to distributed regions and networks. Differences in connectivity maps following SST and TET will be investigated using a 2 (SST/TET treatment group) x 2 (cortical/subcortical) ANOVA with longitudinal FC maps as the dependent variable. Between group differences will be tested using random effects analysis in SPM8 (www.fil.ion.ucl.ac.uk/spm). Based on this analysis we will also determine whether the hypothesized change associated with treatment (SST vs TET) is qualified by the lesion location (eg. increase in FC to distributed regions following TET will be from spared Th seeds for cortical lesions while subcortical lesions will show increased FC from SI and SII seeds). FC maps will be thresholded at Z > 3.1 and differences reported at a cluster corrected false discovery rate of P < 0.05. Within-individual change in those receiving SST followed by TET will also be analysed.
Testing H3: Structural connectivity of interhemispheric SI-SI and ipsilesional SI-Th connections and ability to benefit from rehabilitation:
Response to rehabilitation will be the change in tactile and sensory capacity scores pre-post intervention. Independent variables will be probability of fibre tracts between (i) SI-SI and (ii) ipsilesional Th-SI. Focus will be on connectivity of fibre tracts from seed regions not directly lesioned. Using the entire sample (n=72), multiple regression analysis will quantify the predictability of response to therapy based on the two indexes of spared connectivity.
Exploratory analyses: While our hypotheses are focused on strength of connectivity in inter-hemispheric SI and thalamo-cortical regions, we will also identify connectivity of other networks, such as visual and attention, in a whole brain, hypothesis generating exploratory analyses.
Analysis of clinical outcomes: Analyses conducted on an intention-to-treat basis. Planned comparisons to evaluate the effect of SENSe therapy relative to control conditions: (1) the difference during Phase 1 between Group A (SENSe therapy) and Group C (Control); and (2) the change in trend from Phase 1 (Control) to Phase 2 (SENSe therapy) in Group B. Estimate magnitude of intervention gain Pre-Post SENSe across somatosensory domains, and maintenance of therapeutic effect.
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Recruitment
Recruitment status
Completed
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Date of first participant enrolment
Anticipated
11/10/2010
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Actual
11/10/2010
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Date of last participant enrolment
Anticipated
31/12/2017
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Actual
4/05/2018
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Date of last data collection
Anticipated
31/12/2017
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Actual
16/11/2018
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Sample size
Target
144
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Accrual to date
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Final
75
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Recruitment in Australia
Recruitment state(s)
VIC
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Recruitment hospital [1]
1130
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Austin Health - Austin Hospital - Heidelberg
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Recruitment hospital [2]
1131
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Austin Health - Heidelberg Repatriation Hospital - Heidelberg West
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Recruitment hospital [3]
1133
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Royal Melbourne Hospital - City campus - Parkville
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Recruitment hospital [4]
1134
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The Northern Hospital - Epping
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Recruitment hospital [5]
1135
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Royal Talbot Rehabilitation Centre - Kew
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Funding & Sponsors
Funding source category [1]
287461
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Government body
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Name [1]
287461
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NHMRC
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Address [1]
287461
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National Health and Medical Research Council, GPO Box 1421, Canberra ACT 2601
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Country [1]
287461
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Australia
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Primary sponsor type
Other Collaborative groups
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Name
National Stroke Research Institute
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Address
The Florey Institute of Neuroscience and Mental Health
Melbourne Brain Centre - Austin Campus
245 Burgundy Street
Heidelberg Vic 3084
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Country
Australia
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Secondary sponsor category [1]
286205
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None
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Name [1]
286205
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Address [1]
286205
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Country [1]
286205
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Other collaborator category [1]
277453
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Hospital
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Name [1]
277453
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Austin Health
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Address [1]
277453
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145 Studley Rd Heidelberg VIC 3084
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Country [1]
277453
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Australia
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Other collaborator category [2]
277455
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Hospital
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Name [2]
277455
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Melbourne Health
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Address [2]
277455
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Royal Melbourne Hospital Grattan St, Parkville, VIC 3052
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Country [2]
277455
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Australia
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Other collaborator category [3]
277456
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Hospital
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Name [3]
277456
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Northern Health
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Address [3]
277456
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175 Cooper Street Epping, VIC 3076
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Country [3]
277456
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Australia
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Other collaborator category [4]
277457
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Hospital
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Name [4]
277457
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Hunter New England Areas Health Services
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Address [4]
277457
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John Hunter Hospital Lookout Road, New Lambton Heights, NSW 2305
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Country [4]
277457
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Australia
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Ethics approval
Ethics application status
Approved
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Ethics committee name [1]
289436
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Austin Human Research Ethics Committee
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Ethics committee address [1]
289436
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Austin Hospital 145 Studley Road Heidelberg, Victoria, 3084
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Ethics committee country [1]
289436
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Australia
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Date submitted for ethics approval [1]
289436
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Approval date [1]
289436
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14/03/2013
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Ethics approval number [1]
289436
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H2013 / 04915
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Summary
Brief summary
One in two people experience loss in their ability to feel everyday objects through touch or know where their limbs are in space after a stroke. The loss impairs their ability to explore the environment, execute everyday tasks such as grasping and manipulating objects, and participate in previous activities. Patients vary in their ability to benefit from rehabilitation. Yet we do not have effective means of identifying individuals who may benefit nor how to select the most optimal therapy. This study will compare brain networks involved in recovery of touch sensation under two new training conditions, and in individuals with interruption to different parts of the network. Brain imaging will identify the functional and anatomical connections between regions involved in recovery. Knowledge of how brain networks adapt under these two training conditions is fundamental to guide individually tailored rehabilitation and to advance our understanding of core learning-based rehabilitation approaches. Our findings will guide therapists in choosing the best therapy for the right individual, based on knowledge of brain networks that have capacity to adapt.
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Trial website
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Trial related presentations / publications
Publications: Wanklyn T, Webster KE, Nielsen B, Mak-Yuen Y, Haslam BS, Carey LM. The Performance Quality Rating Scale for Somatosensation After Stroke: A Pilot Study. OTJR (Thorofare N J). 2023 Apr;43(2):280-287. doi: 10.1177/15394492221115349. Epub 2022 Aug 24. PMID: 36000504. Zahra, F.-T., Carey, L.M., Haslam, B., Zoghi, M. (2024). Is there a relationship between somatosensory impairment and the perception of pain in stroke survivors? An exploratory study. International Journal of Rehabilitation Research 2024 Sep 1;47(3):206-213. doi: 10.1097/MRR.0000000000000629. Epub 2024 Jun 24. Mak-Yuen, Y.Y.K.; Matyas, T.A.; Carey, L.M. (2023). Characterizing Touch Discrimination Impairment from Pooled Stroke Samples Using the Tactile Discrimination Test: Updated Criteria for Interpretation and Brief Test Version for Use in Clinical Practice Settings. Brain Sciences. 13, 533. doi: 10.3390/brainsci13040533 Matyas, T.A., Mak-Yuen, Y.Y.K., Boelsen-Robinson, T.P. Carey, L.M. (2023). Calibration of impairment severity to enable comparison across somatosensory domains. Brain Sciences, 13(4), 654. Senadheera, I., Larssen, B. C., Mak-Yuen, Y. Y. K., Steinfort, S., Carey, L. M., & Alahakoon, D. (2023). Profiling Somatosensory Impairment after Stroke: Characterizing Common "Fingerprints" of Impairment Using Unsupervised Machine Learning-Based Cluster Analysis of Quantitative Measures of the Upper Limb. Brain sciences, 13(9), 1253. https://doi.org/10.3390/brainsci13091253 Nielsen, B., Tse, T., Haslam, B., Carey L.M. (2022). Development of an audit checklist to evaluate treatment fidelity of a complex rehabilitation intervention. Disability and Rehabilitation. 1-8 http://doi.org/10.1080/09638288.2022.2052977 Koh, C-L, Yeh C-H., Liang, X., Vidyasagar, R., Seitz, R.J., Nilsson, M., Connelly, A., Carey, LM. Structural connectivity remote from lesions correlates with somatosensory outcome post-stroke. Stroke, 17 Jun 2021, :STROKEAHA120031520. DOI: 10.1161/strokeaha.120.031520 PMID: 34134504 Lamp, G., Goodin, P., Palmer, S., Low, E., Barutchu, A., & Carey, L.M. (2019). Activation of bilateral secondary somatosensory cortex with right hand touch stimulation: A meta-analysis of functional neuroimaging studies. Frontiers in Neurology, 9, 14 pages. doi: 10.3389/fneur.2018.01129 Liang, X., Koh, C-L., Yeh C-H., Goodin, P., Lamp, G., Connelly, A., Carey, LM. (2021). Predicting post-stroke somatosensory function from resting-state functional connectivity: A feasibility study. Brain Sciences 11(11): 1-14. Turville, M.L., Cahill, L.S., Matyas, T.A., Blennerhassett, J.M., & Carey, L.M. (2019). The effectiveness of somatosensory retraining for improving sensory function in the arm following stroke: a systematic review. Clinical Rehabilitation. 33(5), 834-846. doi:10.1177/0269215519829795 Turville, M.L., Walker, J., Blennerhassett, J.M., & Carey, L.M. (2019). Experiences of upper limb somatosensory retraining in persons with stroke: An interpretative phenomenological analysis. Frontiers of Neuroscience 13. 12 pages. doi: 10.3389/fnins.2019.00756 Goodin, P., Lamp, G., Vidyasagar, R., McArdle, D., Seitz, R. J. & Carey, L.M. (2018). Altered functional connectivity differs in stroke survivors with impaired touch sensation following left and right hemisphere lesions. NeuroImage: Clinical 18, 342-355. doi: 10.1016/j.nicl.2018.02.012 Kenzie, J.M., Ben-Shabat, E., Lamp, G., Dukelow, S.P. & Carey, L.M. (2018). Illusory limb movements activate different brain networks than imposed limb movements: an ALE meta-analysis. Brain Imaging and Behavior, 12(4), 919-930. doi: 10.1007/s11682-017-9756-1 Turville, M, Matyas, T., Blennerhassett, J.M. & Carey, L.M. (2018). Initial severity of somatosensory impairment influences response to upper limb sensory retraining post-stroke. NeuroRehabilitation, 43(4), 413-423. doi: 10.3233/NRE-182439 Turville, M. Carey, L.M., Matyas, T.A. & Blennerhassett, J. (2017). Change in functional arm use is associated with somatosensory skills after sensory retraining poststroke. The American Journal of Occupational Therapy, 71(3), 1-9. doi: 10.5014/ajot.2017.024950 Carey, L.M., Abbott, D.F., Lamp, G., Puce, A., Seitz, R.J. & Donnan, G.A. (2016). Same intervention-different reorganisation: The impact of lesion location on training-facilitated somatosensory recovery after stroke. Neurorehabilitation and Neural Repair, 30(10), 988-1000. doi: 10.1177/1545968316653836 Bannister, L.C., Crewther, S.G, Gavrilescu, M. & Carey, L.M. (2015). Improvement of touch sensation after stroke is associated with resting state functional connectivity changes. Frontiers in Neurology Stroke, 6(165). doi: 10.3389/fneur.2015.00165 Ben-Shabat, E., Matyas, T., Pell, G.S., Brodtmann, A. & Carey, L.M. (2015). The right supramarginal gyrus is important for proprioception in healthy and stroke-affected participants: A functional MRI study. Frontiers in Neurology, 6(248). doi: 10.3389/fneur.2015.00248 Carey, L.M. (2014). Loss of somatic sensation. In N. Selzer, S. Clarke, L. Cohen, G. Kwakkel, & R. Miller. Textbook of Neural Repair and Rehabilitation (2nd edition, pp. 298-311). United Kingdom: Cambridge University Press. ISBN: 9781107011687. Carey, L.M. (2013) Stroke Rehabilitation; Insights from Neuroscience and imaging. Oxford Medicine Online. eISBN: 9780199353279. Carey, L.M., Seitz, R.J., Parsons, M., Levi, C., Farquharson, S., Tournier, J-D., Palmer, S. & Connelly, A. (2013). Beyond the Lesion – Neuroimaging foundations for poststroke recovery. Future Neurology, 8(5), 507-524. doi: 10.2217/fnl.13.39 Seitz, R.J. & Carey, L.M. (2013). Neurorehabilitation after stroke. European Medical Journal - Neurology, 1(1), 38-45. Carey, L.M. (2012). Touch and body sensations. In L. Carey (Ed). Stroke Rehabilitation: Insights from Neuroscience and Imaging. (pp. 157-172). New York, NY: Oxford University Press. ISBN 978-0-19-979788-2. Presentations: Selected Invited and keynote: Carey, L.M. (2016). The Neuroscience and Practice of Sensory Rehabilitation after Stroke. 9th World Congress for NeuroRehabilitation (WCNR 2016), May 10-13, Philadelphia, USA. Carey, L.M. (2015). Stroke Rehabilitation: Translating Neuroscience to Neurorehabilitation INS/ASSBI International Neuropsychology Society (INS) and the 38th Annual Brain Impairment Conference of the Australasian Society for the Study of Brain Impairment (ASSBI) Pacific Rim Conference. Sydney 1-4 July Carey, L.M. (2015). Beyond the Lesion: Neuroimaging foundations for post-stroke recovery and rehabilitation. INS/ASSBI International Neuropsychology Society (INS) and the 38th Annual Brain Impairment Conference of the Australasian Society for the Study of Brain Impairment (ASSBI) Pacific Rim Conference. Sydney 1-4 July Carey, L.M. (2015). Sensory Rehabilitation after Stroke: Neuroscience Foundations, New Evidence and Application to Clinical Practice. Edmonton. April 25 & 26 and Vancouver, May 2 & 3, Canada. Sole presenter. Carey, L.M. (2013) Beyond the lesion: Targeting viable brain networks for recovery and rehabilitation. UK Stroke Forum. 3-5th Dec. Harrogate, UK. Carey, L.M. (2013). Building the Evidence for Sensory Rehabilitation after Stroke. University of Haifa, Israel. Carey, LM (2012) Stroke Rehabilitation: Insights from Neuroscience and Imaging. 7th World Congress of Neurorehabilitation. Pre-congress workshop. Melbourne, Australia. 16-19 May. Carey, L.M. (2012) Neuroscience to Neurorehabilitation: Connecting new networks for everyday contact through touch. 7th World Congress of Neurorehabilitation. Melbourne, Australia. 16-19 May. Neurorehabil Neural Repair, July/August 2012; vol. 26, 6: pp. 695-804. Carey, L.M. (2011) Sensory Rehabilitation Post-Stroke: Connecting New Networks for Everyday Contact through Touch. Feb 17. Washington University, St Louis. Neurorehabilitation Grand Round: International Carey L, Koh C-L, Yeh C-H, Liang X, Vidyasagar R, Seitz R, Nilsson M and Connelly A. (2020). Remote structural connectivity correlates with somatosensory outcome post-stroke. European Stroke Organisation and the World Stroke Organisation (ESO-WSO). Virtual Conference. 7-9 November. Koh, C.L., Yeh, C.H., Liang, X., Connelly, A., Carey, L.M. (2019) Fixel-based analysis reveals remote fibres impairment in stroke patients with somatosensory deficits. OHBM 2019 Annual Meeting. Rome, Italy. June 9-13. Liang, X., Koh, C.L., Yeh, C.H., Connelly, A., Carey, L.M. (2019) Investigating the feasibility of predicting somatosensory function of stroke patients from resting-state functional connectivity. ISMRM 27th Annual Meeting. Montreal, Canada. May 11-16. Liang, X., Koh, C.L., Yeh, C.H., Connelly, A., Carey, L.M. (2019) Altered functional connectivity manifested by disrupted network modularity in chronic stroke patients. ISMRM 27th Annual Meeting. Montreal, Canada. May 11-16.). Yeh, C.H., Liang, X., Koh, C.L., Carey, L.M., Connelly, A. (2019) Machine-learning predictions of stroke recovery using quantitative tractography-based connectivity. OHBM 2019 Annual Meeting. Rome, Italy. June 9-13. Carey, L., Goodin, P., Lamp, G., Vidyasagar, R., Seitz, R. (2018). Somatosensory and distributed brain networks show dynamic changes in functional connectivity associated with learning-based somatosensory rehabilitation after stroke. International Journal of Stroke Vol. 13 (pp. 28). Goodin, P., Lamp, G., Vidyasagar, R., McArdle, D., Seitz, R., Carey, L. (2017) Altered functional connectivity differs in stroke survivors with tactile impairment following left and right hemisphere lesions. American Society of Neurorehabilitation 2017 Annual Meeting Baltimore, USA. Nov 9-10 Vidysagar, R., Lamp, G., Goodin, P., Carey, L. (2017) Novel high resolution visualization of white matter structures in stroke. American Society of Neurorehabilitation 2017 Annual Meeting Baltimore, USA. Nov 9-10 Kenzie, J., Dukelow, S, Lamp, G., Ben-Shabat, E., Carey, L. (2016) Illusion of Limb Movement Versus Imposed Limb Movement: Are Similar Brain Areas Activated? Organization for the Human Brain Mapping Annual Meeting. Geneva, Switzerland, June 26-30 Turville, M., Matyas, T., Blennerhassett, J., Carey, L.M. (2016). Sensory retraining outcomes following stroke: Impact of severity of somatosensory impairment and functional arm use. 9th World Congress for NeuroRehabilitation (WCNR 2016) Philadelphia, USA. May 10-13. Carey LM., Abbott, D., Lamp, G., Puce, A., Seitz, R.J, Donnan, G.A. (2014). a phase II study-Different reorganization: Impact of lesion location on training touch after stroke. 2014 Organisation of Human Brain Mapping. Hamburg, Germany. June 8-12. Carey, LM., Bannister, LC., Crewther SG. (2013) Improvement of touch sensation poststroke is associated with intrinsic functional connectivity changes. Carey, LM, Abbott, DF., Lamp, G., Puce, A., Seitz, RJ, Donnan, GA. (2012) Imaging neuroplasticity of touch after stroke: training-facilitated changes following intervention. Organization for Human Brain Mapping 2012. Beijing China, June 10-14. 2012. Bannister, L., Crewther, S., Carey, L., (2012) Behavioural improvement of touch sensation from one to six months poststroke is associated with resting-state functional connectivity changes. 7th World Congress of Neurorehabilitation. Melbourne. May 2012. Neurorehabilitation and Neural Repair, 26 (6) 695-804 Abbott, D.F., Palmer, S.M., Low, E., Jackson, G.D., Carey, L.M. (2012) An fMRI study of the relative laterality of dominant and non-dominant hand sensory function. International Society for Magnetic Resonance and Imaging (ISMRM).
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Public notes
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Contacts
Principal investigator
Name
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Prof Leeanne Carey
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Professor, Occupational Therapy, Department of Community and Clinical Health, School of Allied Health, Human Services and Sport La Trobe University, VIC, 3086. and Head, Neurorehabilitation and Recovery, The Florey, Melbourne Brain Centre - Austin Campus 245 Burgundy Street Heidelberg Vic 3084
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Country
39646
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Australia
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Phone
39646
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+61 3 94795600
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Fax
39646
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+61 3 94795737
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Email
39646
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[email protected]
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Contact person for public queries
Name
39647
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Leeanne Carey
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Address
39647
0
Professor, Occupational Therapy, Department of Community and Clinical Health, School of Allied Health, Human Services and Sport, La Trobe University, VIC, 3086. and Head, Neurorehabilitation and Recovery, The Florey, Melbourne Brain Centre - Austin Campus 245 Burgundy Street Heidelberg Vic 3084
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39647
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Australia
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Phone
39647
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+61 3 94795600
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Fax
39647
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+61 3 9035 7303
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Email
39647
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[email protected]
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Contact person for scientific queries
Name
39648
0
Leeanne Carey
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Address
39648
0
Professor, Occupational Therapy, Department of Community and Clinical Health, School of Allied Health, Human Services and Sport, La Trobe University, VIC, 3086. and Head, Neurorehabilitation and Recovery, The Florey, Melbourne Brain Centre - Austin Campus 245 Burgundy Street Heidelberg Vic 3084
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Country
39648
0
Australia
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Phone
39648
0
+61 3 94795600
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Fax
39648
0
+61 3 9035 7303
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Email
39648
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[email protected]
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Data sharing statement
Will the study consider sharing individual participant data?
No
No IPD sharing reason/comment:
Was not included to be made publicly available in the original approved ethics submission.
Data is available however for related studies with research team once approved by ethics.
What supporting documents are/will be available?
No Supporting Document Provided
Results publications and other study-related documents
Documents added manually
Type
Is Peer Reviewed?
DOI
Citations or Other Details
Attachment
Study results article
Yes
https://doi.org/DOI: 10.1161/strokeaha.120.031520 PMID: 34134504
Koh, C-L, Yeh C-H., Liang, X., Vidyasagar, R., Sei...
[
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Interim results article
Yes
https://doi.org/doi: 10.1016/j.nicl.2018.02.012
Goodin, P., Lamp, G., Vidyasagar, R., McArdle, D.,...
[
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Interim results article
No
https://doi.org/doi: 10.1177/1545968316653836
Carey, L.M., Abbott, D.F., Lamp, G., Puce, A., Sei...
[
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Study results article
No
https://doi.org/doi: 10.3390/brainsci11111388
Liang, X., Koh, C-L., Yeh C-H., Goodin, P., Lamp, ...
[
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Documents added automatically
Source
Title
Year of Publication
DOI
Embase
Change in Functional Arm Use Is Associated With Somatosensory Skills After Sensory Retraining Poststroke.
2017
https://dx.doi.org/10.5014/ajot.2017.024950
Embase
Experiences of upper limb somatosensory retraining in persons with stroke: An interpretative phenomenological analysis.
2019
https://dx.doi.org/10.3389/fnins.2019.00756
Dimensions AI
Characterizing Touch Discrimination Impairment from Pooled Stroke Samples Using the Tactile Discrimination Test: Updated Criteria for Interpretation and Brief Test Version for Use in Clinical Practice Settings
2023
https://doi.org/10.3390/brainsci13040533
N.B. These documents automatically identified may not have been verified by the study sponsor.
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