University of British Colombia
Vancouver, British Columbia, V6T 1Z3, Canada
NCT Number: NCT07443293
The IMPACT 360 study will evaluate the effects of a combined intervention of exercise, mindfulness, and nutrition on 8 key indicators of health and the mechanisms that drive these changes. 60 subjects aged 40 to 85 with a current diagnosis Parkinson's disease will be recruited. This study will follow a partial crossover design. All participants will receive the intervention. Participants randomized into the intervention group after their baseline screening will receive the 6-month intervention. Those randomized into the waitlist group will complete another assessment at the end of the 6-month care as usual phase before receiving the intervention.
This study is active but is not currently recruiting participants.
40 year–85 year
All sexes
Interventional
Phase 2
Vancouver, British Columbia, V6T 1Z3, Canada
Despite its rapidly rising prevalence and status as the second most common neurodegenerative disease worldwide, Parkinson's disease (PD) remains without pharmacological or neuroprotective therapies to prevent or slow down disease progression. While there is marked heterogeneity in its presentation, PD is diagnostically linked to motor impairments, including bradykinesia (slowness of movement), tremors, rigidity, dyskinesia (involuntary, erratic movement), and dystonia (involuntary muscle contraction causing slow, repetitive movement), as well as cognitive decline and neuroinflammation, negatively affecting activities of daily living. Additionally, PD may have a very long prodromal phase, which can last up to decades. During this period, individuals may develop non-motor symptoms, including REM-Sleep Behaviour Disorder (RBD), a nervous system disorder. Typically, during REM sleep, individuals experience a loss of muscle tone, which is absent from those with RBD. As such, RBD is generally characterized by a tendency to act out dreams. Due to the very high specificity for people with RBD to later develop PD26, the study of individuals with idiopathic RBD is particularly valuable, as pathology to the brain is limited at this time. Information about the early, premotor stages of PD can be gathered at a time when therapeutic interventions are most promising. Current research suggests that exercise, meditation, and nutrition have beneficial neuroprotective effects. Physical activity has been associated with improved learning and memory and cognitive function. Long-term exercise has also been shown to upregulate anti-inflammatory and neuroprotective factors. Research examining the effects of mindfulness interventions have found significant increases in grey matter and functional connectivity. Diets high in fruit and vegetable content and low in higher-inflammatory foods such as red meats and sweets, like the Mediterranean-DASH Intervention for Neurodegenerative Delay (MIND) diet, have been shown to increase levels of plasma brain-derived neurotrophic factor. The benefits of these individual interventions have been shown, but emerging evidence suggests that combined interventions are more powerful than isolated ones. The crucial next step is to study the impact of a multimodal program on brain health and to comprehensively examine underlying mechanisms.
Risk factors for many neurological conditions can be modified, indicating that some instances of neurological dysfunction can be prevented through lifestyle modifications. For example, potentially modifiable risk factors for dementia include: high blood pressure, Type 2 diabetes, obesity, lack of physical activity, hearing loss, and poor diet. Many of these can be improved through exercise and nutrition and there is evidence that this combined lifestyle intervention may also be beneficial for those already diagnosed with neurological conditions. A comprehensive examination evaluating health and wellness in people with Parkinson's disease (PwP) and people with RBD (PwRBD) will help us to understand the mechanisms behind the benefits of this combined intervention and how the interactive effects impact one's overall health.
The aim of this study is to evaluate the effects of a multimodal intervention in PwP and PwRBD and to elucidate the mechanisms driving the associated changes. The comprehensive assessment ("360 degree approach") will focus on 8 key areas of health: cognition, inflammation, microbiome diversity, sleep quality, neurological imaging markers, physical fitness, cardiovascular health, and social and mental well-being. Glucose metabolism will be evaluated as an optional 9th key area of health.
Healthy volunteers accepted: No
Only the study team can determine whether someone qualifies for participation.
Inclusion criteria
Exclusion criteria
Completion of a Mindfulness-Based Stress Reduction course OR; Score >8/15 in the MIND Diet Questionnaire
Exclusion for MRI scanning:
The intervention will involve online (via University of British Colombia (UBC) Zoom videoconferencing) 1-hour moderate to high intensity exercise classes 3 times a week for 6 months.
The intervention will involve 15 minute guided mediation following exercise classes as well as mindfulness classes.
Mindfulness classes will consist of 1.5 hour Mindfulness Based Stress Reduction (MBSR) classes for the first 2 months, followed by 1 month of 1 hour bi-weekly discussions and practice, then MBSR 2.0 for months 4 and 5, and 1 hour bi-weekly discussions and practice for the remaining month of the intervention.
The intervention will involve biweekly 1-hour nutrition and cooking classes with a dietician.
Time frame: 6 Months
Cognition will be measured using the National Institutes of Health (NIH) Toolbox Cognitive battery (NIHTB-CB). Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Cognition will be measured using the Montreal Cognitive Assessment (MoCA). Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Cognition will be measured using the Parkinson's Disease Cognitive Rating Scale (PD-CRS). Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of high sensitivity C-reactive protein (hs-CRP). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of interleukin-1β (IL-1β). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of interleukin-6 (IL-6). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of Tumour Necrosis Factor Alpha (TNFa). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of interleukin-8 (IL-8). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of interleukin-10 (IL-10). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of interleukin-18 (IL-18). Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of calprotectin. Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Systemic inflammation will be assessed by measuring concentrations of cortisol. Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Stool samples will be analyzed for gut microbiome composition by shallow shotgun metagenome sequencing. Samples will be taken pre- and post-intervention to assess changes.
Time frame: 6 Months
Sleep efficiency (total sleep time/time spent in bed) will be measured through a wearable device with an accelerometer. This device will also measure other components of sleep quality such as sleep onset latency, total sleep time and wake after sleep onset.
Time frame: 6 Months
The Pittsburgh Sleep Quality Index will be used to collect subjective sleep quality data on a monthly basis.
Time frame: 6 Months
Total grey matter volume will be measured using an MRI. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Hippocampal volume will be measured using an MRI. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
White matter hyperintensities volume will be measured using an MRI. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Myelin water imaging will be collected using resting state functional MRI. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
A flanker task will be administered during the MRI to examine selective attention, inhibitory function, and executive control. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Predicted maximal oxygen consumption will be measured using a six-minute walk test. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Heart rate recovery will be measured using a three-minute step test. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
A Berg Balance Assessment will be used to measure participants balance. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
The Dynamic Gait Index will be used to measure participants gait. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
The Dynamic Gait Index will be used to measure participants gait. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Functional lower extremity strength with be assessed using the 30 second sit to stand test. Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Body composition, such as body fat and muscle mass, will be measured using Dual-energy X-ray Absorptiometry. Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Physical activity levels will be measured through a wearable device to help ensure adherence and effectiveness of the exercise intervention. Data will be collected throughout the study.
Time frame: 6 Months
Heart rate will be measured through a wearable device to help ensure adherence and effectiveness of the exercise intervention. Data will be collected throughout the study.
Time frame: 6 Months
Physical frailty will be assessed using the fried frailty index. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Blood pressure will be measured pre- and post-intervention to compares scores.
Time frame: 6 Months
Weight will be measured pre- and post-intervention to compares scores.
Time frame: 6 Months
Cardiovascular health will be assessed using the Framingham Risk Score. This score includes measurements of age, total cholesterol, smoking status, HDL level, diabetes status, systolic blood pressure and treatment status. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Social, emotional, and mental well-being will be evaluated using the NIH Toolbox-Emotional Battery. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Quality of life will be evaluated using the World Health Organization (WHO) Quality of Life Questionnaire. Testing is done pre- and post-intervention to compares scores.
Time frame: 6 Months
Questionnaires related to mindfulness will be administered throughout the study at monthly intervals.
Time frame: 6 Months
Questionnaires related to mindfulness will be administered throughout the study at monthly intervals.
Time frame: 6 Months
Questionnaires related to mindfulness will be administered throughout the study at monthly intervals.
Time frame: 6 Months
Motor and non-motor complications and experiences of daily living will be measured using the MDS-UPDRS. Testing is done pre- and post-intervention to compare scores.
Time frame: 6 Months
Glucose metabolic patterns will be estimated by positron emission tomography (PET) using the radiotracer [18F]fluorodeoxyglucose. Testing is done pre- and post-intervention to compare patterns.
University of British Columbia
Other
IMPACT 360 Study for Parkinson's Disease
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