- ICH GCP
- US Clinical Trials Registry
- Clinical Trial NCT06847074
Rise & Shine: Promoting Sleep Quality in Chronic Stroke With Exercise
health problems, such as heart disease, diabetes, cognitive impairment, and dementia.
After a person suffers a stroke, they often experience difficulties in getting a good night's sleep. Approximately half of stroke survivors have insomnia, or have trouble falling and/or staying asleep. Poor sleep quality among stroke survivors increases the risk of recurrent stroke by 3-fold and the risk of early death by 76%. Hence, stroke survivors need strategies to promote better sleep.
Fortunately, evidence shows that sleep quality can be improved with exercise, even among those who struggle with insomnia. Whether exercise training can improve sleep quality in adults with chronic stroke (i.e., at least 12 months has passed since their stroke) and poor sleep quality is not known. In addition, it is unknown if improved sleep is associated with improved outcomes in those with chronic stroke.
This study will specifically evaluate the effect of twice-weekly targeted exercise training on sleep quality over a 6-month period in persons with chronic stroke and poor sleep quality. This study will also evaluate the effect of exercise on the following outcomes: 1) sleep structure; 2) fatigue; 3) daytime sleepiness; 4) mood; 5) physical function and capacity; 6) thinking abilities; 7) heart health; and 8) quality of life. Finally, this study will examine how changes in sleep quality may be related to changes in these outcomes. Our proposed research is timely as the importance of sleep to recovery, health, and wellbeing post-stroke is increasingly recognized.
Study Overview
Status
Conditions
Intervention / Treatment
Detailed Description
Approximately half of stroke survivors have insomnia. Poor sleep quality among stroke survivors increases the risk of recurrent stroke by 3-fold and the risk of early death by 76%. Hence, stroke survivors are a target population in need of intervention strategies to promote sleep quality.
Current research and stroke rehabilitation do not address the sleep consequences of stroke - especially for those in the chronic phase (i.e., = or > 12 months since an index stroke). Adults with chronic stroke have lower sleep efficiency compared with sex- and age-matched controls. Poor sleep quality in chronic stroke is associated with depression, impaired physical function, and reduced cognitive function.
How to effectively treat insomnia in adults with chronic stroke is not well established. Intervention studies show exercise improves sleep quality and structure. Whether exercise can improve sleep quality in adults with chronic stroke and poor sleep quality is not established.
Primary Question: In adults with chronic stroke and poor sleep quality, can a 26-week multimodal exercise training program of moderate intensity (EX) improve sleep efficiency, as objectively measured by the actigraphy, compared with a 26-week cognitive and social activities program (CON; active control group)?
Secondary Question: What are additional benefits of EX vs. CON? Compared with CON, we will evaluate the effect of EX on: 1) actigraphy-measured sleep parameters of latency, duration, and wake after sleep onset; 2) sleep architecture by frontal electroencephalography; 3) subjective sleep quality; 4) fatigue; 5) daytime sleepiness; 6) mood; 7) functional capacity; 8) cognitive function; 9) cardiometabolic risk factors; and 10) quality of life.
Tertiary Question: Are changes in sleep quality associated with changes in: 1) fatigue; 2) daytime sleepiness; 3) mood; 4) cognitive function; 5) cardiometabolic risk factors; and 6) quality of life?
Pilot Data: Using actigraphy, the investigators acquired sleep data from 21 of 120 (i.e., subset) participants with chronic stroke enrolled in a RCT with cognitive function as the primary outcome. These 21 participants (mean age=69) were randomized to 26 weeks of: 1) multimodal exercise of moderate intensity (EX; n=12); or 2) cognitive and social activities (i.e., no exercise; CON; n=9). Of these 21 participants, 48% had a baseline actigraphy-measured sleep efficiency < 85%. Compared with CON, EX significantly improved actigraphy-measured sleep efficiency values (in %) at 13 weeks and 26 weeks.
Methods: A 26-week, assessor-blinded, single-site RCT of 62 community-dwelling adults with chronic stroke, WatchPAT measured sleep efficiency < 85%, Pittsburgh Sleep Quality Index global score > 5, and aged 55 years and older. Individuals will be randomized to one of two experimental groups: 1) twice-weekly EX (n=31); or 2) twice-weekly CON (n=31). Randomization will be stratified by sex and age. Measurement will occur at baseline, 13 weeks, and 26 weeks, unless otherwise stated.
Study Type
Enrollment (Estimated)
Phase
- Not Applicable
Contacts and Locations
Study Contact
- Name: Teresa Liu-Ambrose, PhD
- Phone Number: 604-617-8047
- Email: teresa.ambrose@ubc.ca
Study Contact Backup
- Name: Ryan Stein, MSc
- Email: exsleep.strokestudy@ubc.ca
Study Locations
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British Columbia
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Vancouver, British Columbia, Canada, V5Z 1L8
- Recruiting
- Vancouver Coastal Health Research Institute Research Pavilion
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Contact:
- Nathan Wei, B.SC
- Phone Number: 69056 604-875-4111
- Email: cogmob.research@hiphealth.ca
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Principal Investigator:
- Teresa Liu-Ambrose, Ph.D
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Participation Criteria
Eligibility Criteria
Ages Eligible for Study
- Adult
- Older Adult
Accepts Healthy Volunteers
Description
Inclusion Criteria:
We will include community-dwelling adults who had an ischemic or hemorrhagic stroke at least one year prior to study enrolment and have poor sleep quality - defined as a sleep efficiency of < or = 85%, with allowance for minor upward deviations on individual nights consistent with known night-to-night variability and instrument accuracy limits, and a PSQI global score of > 5. Individuals must also meet these inclusion criteria: 1) aged 55 years and older; 2) a baseline MMSE score of = or > 22/30 and a MoCA score of = or > 19/30; 3) community-dwelling; 4) able to comply with scheduled assessments, classes, and other trial procedures; 5) read, write, and speak English with acceptable visual and auditory acuity; 6) not to start or stable (i.e., = or > 6 months) on a fixed dose of medication that impacts sleep (i.e., anti-arrhythmics, beta blockers, selective serotonin reuptake inhibitor, etc.) during the 26-week intervention period; 7) able to walk for a minimum of six metres with rest intervals with or without assistive devices; 8) based on interview, have an activity tolerance of 60 minutes with rest intervals; 9) not participating in any regular therapy or progressive exercise (e.g., treadmill or weight-lifting); and 10) able to safely engage in exercise as indicated by the PAR-Q+63 and written confirmation by family or study physicians.
Exclusion Criteria:
We will exclude individuals who: 1) are diagnosed with OSA and are not using CPAP or defined as potentially having undiagnosed OSA (AHI > 20) as a result of study screening; 2) have restless leg syndrome; 3) are diagnosed with dementia of any type; 4) are diagnosed with another type of neurodegenerative or neurological condition (e.g., Parkinson's disease); 5) are planning to participate, or already enrolled in, a clinical drug trial or exercise trial concurrent to this study; 6) are at high risk for cardiac complications during exercise and/or unable to self-regulate activity or to understand recommended activity level; 7) have clinically significant peripheral neuropathy or severe musculoskeletal or joint disease that impairs mobility, as determined by his/her physician; or 8) have aphasia as judged by an inability to communicate by phone.
Study Plan
How is the study designed?
Design Details
- Primary Purpose: Treatment
- Allocation: Randomized
- Interventional Model: Parallel Assignment
- Masking: Triple
Arms and Interventions
Participant Group / Arm |
Intervention / Treatment |
|---|---|
|
Experimental: Multimodal Exercise Training
The program will consist of moderate intensity, multimodal exercise training; 2x/week; in-person, group-based.
|
Each 60-minute class will include a 10-minute warm-up (i.e., stretches for the major muscles and walking on the spot), 40 minutes of training, and a 10-minute cool down (i.e., stretches and relaxation techniques).Instructors will use heart rate monitors to continuously track intensity during and across all sessions.
|
|
Active Comparator: Cognitive and Social Activities (No Exercise)
The program will consist of cognitive and social activites; 2x/week; in-person, group-based
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Each 60-minute class will include 30 minutes of cognitive enrichment activities and 30 minutes of activities that promote social interactions.
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What is the study measuring?
Primary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Sleep Efficiency
Time Frame: Baseline, 13 weeks, 26 weeks
|
Sleep efficiency as measured by actigraphy over days of wear.
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Baseline, 13 weeks, 26 weeks
|
Secondary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Sleep latency, duration, and wake after sleep onset
Time Frame: Baseline, 13 weeks, 26 weeks
|
Sleep latency, duration, and wake after sleep onset by actigraphy over days of wear.
|
Baseline, 13 weeks, 26 weeks
|
|
Subjective sleep quality
Time Frame: Baseline, 13 weeks, 26 weeks
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Subjective sleep quality measured by Pittsburgh Sleep Quality Index
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Baseline, 13 weeks, 26 weeks
|
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Fatigue
Time Frame: Baseline, 13 weeks, 26 weeks
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Fatigue measured by Fatigue Severity Scale
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Baseline, 13 weeks, 26 weeks
|
|
Sleepiness
Time Frame: Baseline, 13 weeks, 26 weeks
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Daytime sleepiness measured by questionnaire
|
Baseline, 13 weeks, 26 weeks
|
|
Mood
Time Frame: Baseline, 13 weeks, 26 weeks
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Depressive symptoms measured by questionnaire
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Baseline, 13 weeks, 26 weeks
|
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NIH Toolbox Cognitive Battery
Time Frame: Baseline, 13 weeks, 26 weeks
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Cognitive function measured by NIH Toolbox Cognitive Battery
|
Baseline, 13 weeks, 26 weeks
|
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ADAS-Cog Plus
Time Frame: Baseline, 13 weeks, 26 weeks
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Cognitive function measured by ADAS-Cog Plus
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Baseline, 13 weeks, 26 weeks
|
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Executive Functions
Time Frame: Baseline, 13 weeks, 26 weeks
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The domain of executive functions measured by Trails A and B, Digits Forward and Backward, and Clock Drawing
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Baseline, 13 weeks, 26 weeks
|
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Verbal Fluency
Time Frame: Baseline, 13 weeks, 26 weeks
|
Verbal fluency measured by categorical fluency
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Baseline, 13 weeks, 26 weeks
|
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Memory
Time Frame: Baseline, 13 weeks, 26 weeks
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Memory measured by the Rey Auditory Verbal Fluency
|
Baseline, 13 weeks, 26 weeks
|
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Chronotype
Time Frame: Baseline, 13 weeks, 26 weeks
|
Chronotype measured by questionnaire
|
Baseline, 13 weeks, 26 weeks
|
|
Sleep Architecture (OPTIONAL)
Time Frame: Baseline, 13 weeks, 26 weeks
|
Sleep architecture as measured by EEG headband
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Baseline, 13 weeks, 26 weeks
|
|
Functional Capacity
Time Frame: Baseline, 13 weeks, 26 weeks
|
Functional capacity, or aerobic capacity, measured by the 6-Minute Walk Test
|
Baseline, 13 weeks, 26 weeks
|
|
Blood Pressure
Time Frame: Baseline, 13 weeks, 26 weeks
|
Systolic and diastolic blood pressure
|
Baseline, 13 weeks, 26 weeks
|
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Blood Biomarkers (OPTIONAL)
Time Frame: Baseline, 13 weeks, 26 weeks
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We will draw blood to assess markers cardiometabolic health and brain health
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Baseline, 13 weeks, 26 weeks
|
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Quality of life
Time Frame: Baseline, 13 weeks, 26 weeks
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Quality of life measured by the EuroQol-5 Domain-5 Level (EQ-5D-5L)
|
Baseline, 13 weeks, 26 weeks
|
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Current Physical Activity (Self-Report)
Time Frame: Baseline, 13 weeks, 26 weeks
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Physical activity outside of research study will be assessed by questionnaire
|
Baseline, 13 weeks, 26 weeks
|
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Balance and Mobility
Time Frame: Baseline, 13 weeks, 26 weeks
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Balance and mobility measured by the Short Physical Performance Battery
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Baseline, 13 weeks, 26 weeks
|
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Activities of Daily Living
Time Frame: Baseline, 26 weeks
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Lawton and Brody Instrumental Activities of Daily Living Scale will asssess activites of daily living
|
Baseline, 26 weeks
|
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Arterial Stiffness
Time Frame: Baseline, 13 weeks, 26 weeks
|
Arterial stiffness will be measured as pulse wave velocity
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Baseline, 13 weeks, 26 weeks
|
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Sedentary Behaviour
Time Frame: Baseline, 13 weeks, 26 weeks
|
Time in sedentary behaviour will be measured by actigraphy over days of wear.
|
Baseline, 13 weeks, 26 weeks
|
Collaborators and Investigators
Sponsor
Collaborators
Investigators
- Principal Investigator: Teresa Liu-Ambrose, PhD, University of British Columbia
Study record dates
Study Major Dates
Study Start (Actual)
Primary Completion (Estimated)
Study Completion (Estimated)
Study Registration Dates
First Submitted
First Submitted That Met QC Criteria
First Posted (Actual)
Study Record Updates
Last Update Posted (Actual)
Last Update Submitted That Met QC Criteria
Last Verified
More Information
Terms related to this study
Keywords
Additional Relevant MeSH Terms
Other Study ID Numbers
- H23-01163
Plan for Individual participant data (IPD)
Plan to Share Individual Participant Data (IPD)?
Drug and device information, study documents
Studies a U.S. FDA-regulated drug product
Studies a U.S. FDA-regulated device product
This information was retrieved directly from the website clinicaltrials.gov without any changes. If you have any requests to change, remove or update your study details, please contact register@clinicaltrials.gov. As soon as a change is implemented on clinicaltrials.gov, this will be updated automatically on our website as well.
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