- ICH GCP
- US Clinical Trials Registry
- Clinical Trial NCT06195423
Stopping OsteoARthritis After an ACL Tear (SOAR)
The Stop Osteoarthritis (SOAR) Hybrid Effectiveness-Implementation Type 1 Randomized Controlled Trial for Young People At-High-Risk of Early Onset Knee Osteoarthritis
By 2040, 25% of Canadians will have osteoarthritis, a disabling joint condition. Most people think osteoarthritis only affects older adults, but 50% of the 700,000 Canadian youth who hurt their knee playing sports annually will develop osteoarthritis by 40 years of age. These young people with old knees face knee pain and disability for much of their adult lives, interfering with parenting, work, and recreation. Yet, most do not know about osteoarthritis or how to reduce their risk.
In this clinical trial, people who have torn the Anterior Cruciate ligament in their knee and had reconstruction surgery 9-36 months previously will be randomized to receive either a 6-month virtual education and exercise therapy program called Stop OsteoARthritis (SOAR) or a minimal intervention control program. Researchers will test if those who received the SOAR program have larger gains in knee health, including pain, symptoms, function, and quality of life at 6, 12, and 24 months. Researchers will also use MRIs (baseline and 24 months) to assess how the SOAR program influences knee cartilage degeneration and its cost-effectiveness.
Study Overview
Status
Intervention / Treatment
Detailed Description
PURPOSE: Assess the effectiveness, efficiency, and implementation of a 6-month evidence-informed, digital (online), education and exercise-therapy program (SOAR - Stop OsteoARthritis) versus a minimal intervention control for people aged 16-35 years at risk of early-onset knee osteoarthritis (OA) due to a first time Anterior Cruciate Ligament Reconstruction (ACLR).
OBJECTIVES:
Primary Effectiveness Objective: Assess if self-reported knee pain, symptoms, function, and QoL (average of the Knee injury and OA Outcome Score pain, other symptoms, function in sport and recreation, and quality of life subscale scores; KOOS4) of people at risk of knee OA who receive SOAR is superior to those receiving a minimal intervention CONTROL at 6 (primary end-point), 12, and 24 months.
Primary Efficiency Objective: Assess the incremental cost-utility ratio of SOAR compared CONTROL (6, 12, 24 months)
Primary Implementation Objective: Assess provider adoption of the SOAR program.
Secondary Effectiveness Objectives:
- Assess if the perceived self-management of people at risk of knee OA who receive SOAR is superior to those receiving a minimal intervention CONTROL (6, 12, 24 months)
- Assess if the percentage of SOAR group participants who achieve a Patient Acceptable Symptom State (PASS) for knee-related pain, other symptoms, function in daily living, function in sport and recreation, and quality of life is superior to CONTROL (6, 12, 24 months)
- Assess if knee OA MRI features of SOAR group participants are superior to CONTROL (24 months)
Secondary Efficiency Objectives:
- Describe the health resource use of SOAR and CONTROL participants (24 months)
- Describe SOAR program delivery costs
Secondary Implementation Objectives:
- Describe provider perceived barriers and facilitators of SOAR delivery
- Describe participants' perceived barriers and facilitators of SOAR delivery
- Describe features of physiotherapy (PT) counseling that promote self-management
Exploratory Effectiveness Objectives: Explore the superiority of SOAR to CONTROL on the following outcomes (at 6, 12, and 24 months);
- Patient-specific function
- Knee-related self-efficacy
- Knee-related fear of movement and re-injury
- Knee extensor strength
- Knee flexor strength
- Physical activity,
- Health-related quality-of-life
- Adiposity
- Early cartilage degeneration (at 24 months only)
RESEARCH DESIGN:
The proposed trial is a two-arm, assessor-blinded, superiority, hybrid effectiveness-implementation type 1 randomized controlled trial with embedded cost-utility analyses and 1:1 interviews. This multi-focus design (effectiveness, implementation, efficacy) can accelerate research translation to real-world settings (Type 1: main focus-intervention effectiveness; secondary focus-understand implementation context). This design is appropriate as we have shown feasibility and indirect evidence of SOAR effect, the intervention is minimal risk, and there are no fully powered superiority trials to inform non-inferiority or equivalence designs.
The nature of the interventions do not allow for full blinding (physiotherapists cannot be blinded to treatment). We will employ proven methods from our proof-of-concept RCT to reduce allocation (online randomization module with schedule prepared by an arms-length statistician) and confirmation bias (outcome assessors and data analysts will be blinded to allocation).
STATISTICAL ANALYSES:
Primary analyses will be intent-to-treat (by randomization). Data missing more than 5% will be imputed using multiple imputations by chained equations to avoid bias. To ensure best practice, all outcome and demographic/prognostic variables will be included in imputation equations.
Demographics: Descriptive statistics will be calculated for demographic and potentially prognostic variables (time since injury and ACLR, concomitant injury, ACLR rehabilitation, graft type, reinjury, co-intervention, SES) and observed differences considered or controlled for when interpreting findings.
Effectiveness: SOAR superiority will be assessed with a generalized linear mixed regression model (GLMM) for the primary outcome (KOOS4 at 6 months) adjusted for baseline measure, time since ACLR, and sex. Adjusting for continuous time since ACLR versus stratifying improves power. Similar GLMMs will assess SOAR superiority for continuous secondary (PIH) and exploratory (knee extensor strength, adiposity, physical activity) outcomes at stated time points. Mixed effect logistic regression models (adjusted for the same variables as GLMMs) will assess SOAR superiority for binary secondary outcomes (MRI lesion worsening, achieving PASS) at stated time points. Analyses will yield valid results under the missing at random (MAR) assumption. The robustness of estimates to potential MAR assumption violations will be assessed with state-of-art methods.
Sex/Gender: To explore the effect of gender identity (women, man, gender-diverse) and sex (female, male, intersex) on outcome variables and intervention effect, all outcomes will be described by treatment group stratified by gender (KOOS4, Partner in Health Scale, cost-utility, physical activity, quality of life) or sex (MRI, knee extensor strength, adiposity) at all time points. We will estimate GLMMs and report intervention effect estimates stratified by sex (female, male) or gender (woman, man) as exploratory analyses to inform future studies. As 6% of our preliminary proof-of-concept randomized controlled trial participants identified gender diverse, descriptive statistics will also explore differences by cis and diverse gender.
Implementation: The % of physiotherapists achieving ≥85% on the fidelity checklist and checklist items with ≤70% fidelity will be reported. Provider and participants' responses to survey questions asking about barriers and facilitators of SOAR implementation will be summarized. Interview recordings related to identifying features of participant-provider interactions that facilitate self-management will be transcribed and de-identified. Data will be coded using a constant comparative approach, and categories will be developed by comparing and identifying meaningful patterns across codes. High-order themes will elucidate the relationship between categories. We will look for uniqueness by gender and, if found, reanalyze the data with a gender lens. Analysis trustworthiness and credibility will be fostered through data immersion, memoing, reflexive journaling, and team discussions. An audit of analytic decisions will be kept.
Efficiency outcome: Incremental cost-utility ratio will be estimated as (Cost_SOAR - Cost_CONTROL) ⁄(∆QALY_SOAR - ∆QALY_CONTROL) for the intervention and 6-month post-intervention period using nested imputation and nonparametric bootstrapping to model uncertainty around cost and QALY estimates. The contribution of each cost item to total healthcare resource use will be described by group, gender, and compliance (full, partial).
Study Type
Enrollment (Estimated)
Phase
- Not Applicable
Contacts and Locations
Study Contact
- Name: Jackie L Whittaker, BScPT, PhD
- Phone Number: 604-202-1362
- Email: jackie.whittaker@ubc.ca
Study Locations
-
-
British Columbia
-
Vancouver, British Columbia, Canada, V5Y 3P2
- Recruiting
- Arthritis Research Canada
-
Contact:
- Jackie Whittaker, PT, PhD
- Phone Number: 604 202 1362
-
Whistler, British Columbia, Canada, V8E 1A6
- Recruiting
- Sea to Sky Orthopaedics
-
Contact:
- Alex Brooks-Hill, MD
- Phone Number: 604 9054075
-
-
Participation Criteria
Eligibility Criteria
Ages Eligible for Study
- Child
- Adult
Accepts Healthy Volunteers
Description
Inclusion Criteria:
- Currently live in British Columbia, Canada
- 16-35 years of age (inclusive)
- 9-36-months past a first-time ACLR performed ≤12-months of first-time ACL tear
- Currently not receiving knee care from a health or fitness provider and have no scheduled surgical procedures (any part of the body) that would interfere with exercise during the study.
- Score below a KOOS4 PASS (<79 points)
- Have daily access to an email address and a computer with internet
- Are willing to wear an activity tracker during the study
Exclusion Criteria:
- Inability to communicate in English
- No medical attention (healthcare provider) time-loss (missed physical activity, sport or work ≥2 occasions) injury to the ACLR knee before the ACL tear
- Previous physician diagnosis of index knee osteoarthritis
- Inflammatory arthritis or other systemic condition
- Lower limb injury, surgery, or intra-articular injection in the past 6-months
- Current pregnancy
- MRI contraindications (i.e., Weight over 400 lbs (MRI machine limit); Pacemaker or any other implanted medical device (i.e., wires, defibrillator, artificial heart valve, an electronic device like a drug infusion pump, electrical stimulator for nerves or bones, coil, catheter, or filter in any blood vessel, ear or eye implant, or stainless steel intrauterine device (IUD); Brain or ferromagnetic aneurysm clip; any other metallic prostheses or shrapnel, bullets, or other metal fragments; injury where a piece of metal lodged in the eye or orbit, or; surgery, medical procedure or tattoos (including tattooed eyeliner) in the last 6 weeks).
Study Plan
How is the study designed?
Design Details
- Primary Purpose: Treatment
- Allocation: Randomized
- Interventional Model: Parallel Assignment
- Masking: Single
Arms and Interventions
Participant Group / Arm |
Intervention / Treatment |
|---|---|
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Experimental: Stop OsteoARthritis (SOAR) program
Participants with a first-time ACL tear followed by reconstruction surgery randomized to the SOAR program group will complete a 6-month SOAR program (one-time Knee Camp, weekly home-based exercise therapy and physical activity with tracking, weekly 1:1 physiotherapist counseling sessions, and optional weekly group-based exercise classes) Consented trained physiotherapists will deliver the SOAR program throughout the study period to one or more SOAR program participants.
Physiotherapists and SOAR participants will be randomly paired.
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The SOAR program is a 6-month, online-delivered (videoconferencing), PT-guided knee health program which consists of;
Other Names:
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Active Comparator: Living Well after ACLR
Participants with a first-time ACL tear followed by reconstruction surgery randomized to the minimal control (Living Well after ACLR) group will complete a 6-month minimal intervention control program (educational video, workbook, activity tracking, and one 1:1 physiotherapist counseling session).
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Participants in the minimal intervention CONTROL group will receive access to a 30-minute educational video (knee anatomy, ACLR information, general exercise, physical activity, and goal-setting principles), a best practice workbook, one video-recorded virtual session with a physiotherapist (naïve to SOAR) who will explain the booklet and answer questions but not volunteer information beyond the video or booklet and the same wrist-worn activity tracker as the experimental group.
Other Names:
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What is the study measuring?
Primary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
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Self-reported knee-related pain, symptoms, function in sport and quality of life over 6 months (effectiveness outcome) (ACL tear participants)
Time Frame: Change from baseline KOOS score at 6 months (ACL tear participants)
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Patient partners identify pain, function and quality of life, which can be impaired up to 10-years post-ACLR, as priority outcomes.
The Knee Injury and Osteoarthritis Outcome Score (KOOS) is a valid and reliable patient-reported outcome measure (PROM) with sub-scales for knee pain (9-items), other symptoms (7-items), function in daily living (ADL; 17-items), function in sport/recreation (5-items), and quality of life (4-items) across injury and OA populations.
Each subscale item is scored on a 5-point scale and individual subscale items summed and transformed to a 0-100 scale with higher scores indicating better outcome.
The KOOS4 which is an average of 4 sub-scales (excluding ADL) is a recommended and accepted primary outcome for ACLR RCTs and was responsive in our proof of concept RCT.
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Change from baseline KOOS score at 6 months (ACL tear participants)
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Incremental cost-utility ratio over 6 months (efficiency outcome)
Time Frame: Incremental cost-utility ratio at 6 months
|
To assess SOARs value for money (health systems perspective) we will estimate the incremental cost/mean change in Quality-Adjusted Life Years (QALY) gained by SOAR versus CONTROL at 6 months.
Costs will be estimated with the Health Resource Utilization questionnaire (HRU) as the study population often uses resources not captured in administrative data and evidence of good agreement between administrative and prospectively collected HRU data.
The HRU captures provider visits, hospital admissions, lab and diagnostic tests and medication use.
QALYs will be estimated from health-related quality of life (EQ-5D-5L) using area under the curve analysis.
The EQ-5D-5L is widely used for cost-utility analyses in OA, and assesses 5 levels across 5 health domains to produce a health state profile using Canadian conversion tariffs.
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Incremental cost-utility ratio at 6 months
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Provider adoption of SOAR over 6 months (implementation outcome) (physiotherapist participants)
Time Frame: Percent fidelity at 6 months (physiotherapist participants)
|
A 40-item fidelity checklist, refined in our proof-of-concept RCT, will be applied to all video-recorded 1:1 counseling sessions for 4 participants per PT, and the median % fidelity for each PT and checklist item reported.
Items reaching ≤70% will be identified and inform the development of PT training modules to facilitate future evaluation and implementation.
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Percent fidelity at 6 months (physiotherapist participants)
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Secondary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Patient Acceptable Symptom State over 6 months (ACL tear participants)
Time Frame: Change from baseline patient acceptable symptom state score at 6 months (ACL tear participants)
|
To help interpret the clinical relevance of the KOOS4, the percentage of participants in both study groups to reach KOOS4 and KOOS sub-scale Patient Acceptable Symptom State (PASS) scores (KOOS4 79; pain 89; symptoms 83; ADL 95, sport 72; QoL 73) will be reported.
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Change from baseline patient acceptable symptom state score at 6 months (ACL tear participants)
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Self-reported perceived self-management over 6 months (ACL tear participants)
Time Frame: Change from baseline self-reported perceived self-management at 6 months (ACL tear participants)
|
The 12 item Partner in Health Scale will be used to measure perceived self-management (active involvement to self-manage a chronic condition).
Each item is scored on a 0-9 point Likert scale.
Scores on individual items are summed to produce a total score ranging between 0 and 96, with 0 representing no perceived self-management and 96 representing full perceived self-management.
The total time for this questionnaire is 3 minutes.
The Partner in Health Scale is valid and reliable across numerous chronic conditions.
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Change from baseline self-reported perceived self-management at 6 months (ACL tear participants)
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Osteoarthritis MRI features over 24 months (ACL tear participants)
Time Frame: Change from baseline MRI at 24 months (ACL tear participants)
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MRI features of OA (cartilage defect, bone marrow lesions) are important for early disease staging and common after ACLR.
The impact of exercise on these outcomes post-ACLR is unknown.
The valid semi-quantitative MRI OA knee score (MOAKS) will be applied to 3D proton-density (PD) gradient MRI sequences (3T scanner, Philips Elition, 8-channel knee coil).
Positioning aids will immobilize the knee to ensure consistent scans.
Radiology fellows will conduct MOAKS ratings blinded to group allocation.
OA feature worsening will be defined as an increase in the size of the lesion using established methods.
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Change from baseline MRI at 24 months (ACL tear participants)
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Health resource use costs over 24 months
Time Frame: Health resource use costs over 24 months
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Monthly health resource use costs (HRU) will be reported over the 24-month study period.
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Health resource use costs over 24 months
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Intervention delivery costs over 6 months
Time Frame: Intervention delivery costs over 6 months
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The cost to deliver the SOAR and CONTROL (Living Well with ACLR) interventions will be tracked and reported.
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Intervention delivery costs over 6 months
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Participant perceived barriers and facilitators of program delivery over 6 months (ACL tear participants)
Time Frame: Follow-up surveys will take place at 6 months (ACL tear participants)
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On completion of the intervention, participants will receive a follow-up survey which will include questions to capture information about their perceived barriers and facilitators of program delivery, and therapeutic alliance with their PT (Consultation and Relational Empathy measure (CARE)).
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Follow-up surveys will take place at 6 months (ACL tear participants)
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Provider perceived barriers and facilitators of program delivery over 6 months (physiotherapist participants)
Time Frame: Follow-up surveys will take place at 6 months (physiotherapist participants)
|
After PT's are done delivering the SOAR program they will receive a follow-up survey including questions to capture information about their perceived barriers and facilitators of SOAR program delivery, SOAR and BAP training, confidence in BAP, SMART goal setting, shared decision making, virtual PT delivery, and perceived impacts on patient and clinic flow.
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Follow-up surveys will take place at 6 months (physiotherapist participants)
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Features of PT counselling that promote self-management over 6 months (ACL tear participants)
Time Frame: 1:1 interviews will be conducted at 6 months (ACL tear participants)
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Semi-structured 1:1 interviews will be conducted with a purposive maximum variation sample (gender, age, adherence, time since injury) of 15-20 participants.
Using video-cued narrative reflection, participants will self-select meaningful exchanges with their PT that promoted self-management while viewing a Knee Camp recording and a random weekly counselling session.
Participants will be able to pause and rewind the recording to identify, and elaborate on significant moments.
A definition of self-management and context-specific examples will be provided.
Probe and prompts will provide elaboration.
Field notes will be taken, and interviews recorded.
Ongoing analyses will inform sampling, and data collection will cease when no new themes are identified.
Video-recorded healthcare interactions are acceptable and provide valuable practice insights.
Video-cued interviews yield rich data as participants simultaneously identify, engage and reflect on their lived experience.
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1:1 interviews will be conducted at 6 months (ACL tear participants)
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Other Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Self-reported knee-related pain, symptoms, function in sport and quality of life over 12 months (ACL tear participants)
Time Frame: Change from baseline KOOS score at 12 months (ACL tear participants)
|
Patient partners identify pain, function and quality of life, which can be impaired up to 10-years post-ACLR, as priority outcomes.
The Knee Injury and Osteoarthritis Outcome Score (KOOS) is a valid and reliable patient-reported outcome measure (PROM) with sub-scales for knee pain (9-items), other symptoms (7-items), function in daily living (ADL; 17-items), function in sport/recreation (5-items), and quality of life (4-items) across injury and OA populations.
Each subscale item is scored on a 5-point scale and individual subscale items summed and transformed to a 0-100 scale with higher scores indicating better outcome.
The KOOS4 which is an average of 4 sub-scales (excluding ADL) is a recommended and accepted primary outcome for ACLR RCTs and was responsive in our proof of concept RCT.
|
Change from baseline KOOS score at 12 months (ACL tear participants)
|
|
Self-reported knee-related pain, symptoms, function in sport and quality of life over 24 months (ACL tear participants)
Time Frame: Change from baseline KOOS score at 24 months (ACL tear participants)
|
Patient partners identify pain, function and quality of life, which can be impaired up to 10-years post-ACLR, as priority outcomes.
The Knee Injury and Osteoarthritis Outcome Score (KOOS) is a valid and reliable patient-reported outcome measure (PROM) with sub-scales for knee pain (9-items), other symptoms (7-items), function in daily living (ADL; 17-items), function in sport/recreation (5-items), and quality of life (4-items) across injury and OA populations.
Each subscale item is scored on a 5-point scale and individual subscale items summed and transformed to a 0-100 scale with higher scores indicating better outcome.
The KOOS4 which is an average of 4 sub-scales (excluding ADL) is a recommended and accepted primary outcome for ACLR RCTs and was responsive in our proof of concept RCT.
|
Change from baseline KOOS score at 24 months (ACL tear participants)
|
|
Incremental cost-utility ratio over 12 months
Time Frame: Incremental cost-utility ratio at 12 months
|
To assess SOARs value for money (health systems perspective) we will estimate the incremental cost/mean change in Quality-Adjusted Life Years (QALY) gained by SOAR versus CONTROL at 12 months.
Costs will be estimated with the Health Resource Utilization questionnaire (HRU) as the study population often uses resources not captured in administrative data and evidence of good agreement between administrative and prospectively collected HRU data.
The HRU captures provider visits, hospital admissions, lab and diagnostic tests and medication use.
QALYs will be estimated from health-related quality of life (EQ-5D-5L) using area under the curve analysis.
The EQ-5D-5L is widely used for cost-utility analyses in OA, and assesses 5 levels across 5 health domains to produce a health state profile using Canadian conversion tariffs.
|
Incremental cost-utility ratio at 12 months
|
|
Incremental cost-utility ratio over 24 months
Time Frame: Incremental cost-utility ratio at 24 months
|
To assess SOARs value for money (health systems perspective) we will estimate the incremental cost/mean change in Quality-Adjusted Life Years (QALY) gained by SOAR versus CONTROL at 24 months.
Costs will be estimated with the Health Resource Utilization questionnaire (HRU) as the study population often uses resources not captured in administrative data and evidence of good agreement between administrative and prospectively collected HRU data.
The HRU captures provider visits, hospital admissions, lab and diagnostic tests and medication use.
QALYs will be estimated from health-related quality of life (EQ-5D-5L) using area under the curve analysis.
The EQ-5D-5L is widely used for cost-utility analyses in OA, and assesses 5 levels across 5 health domains to produce a health state profile using Canadian conversion tariffs.
|
Incremental cost-utility ratio at 24 months
|
|
Patient Acceptable Symptom State over 12 months (ACL tear participants)
Time Frame: Change from baseline Patient Acceptable Symptom State score at 12 months (ACL tear participants)
|
To help interpret the clinical relevance of the KOOS4, the percentage of participants in both study groups to reach KOOS4 and KOOS sub-scale Patient Acceptable Symptom State (PASS) scores (KOOS4 79; pain 89; symptoms 83; ADL 95, sport 72; QoL 73) will be reported.
|
Change from baseline Patient Acceptable Symptom State score at 12 months (ACL tear participants)
|
|
Patient Acceptable Symptom State over 24 months (ACL tear participants)
Time Frame: Change from baseline Patient Acceptable Symptom State score at 24 months (ACL tear participants)
|
To help interpret the clinical relevance of the KOOS4, the percentage of participants in both study groups to reach KOOS4 and KOOS sub-scale Patient Acceptable Symptom State (PASS) scores (KOOS4 79; pain 89; symptoms 83; ADL 95, sport 72; QoL 73) will be reported.
|
Change from baseline Patient Acceptable Symptom State score at 24 months (ACL tear participants)
|
|
Self-reported perceived self-management over 12 months (ACL tear participants)
Time Frame: Change from baseline self-reported perceived self-management at 12 months (ACL tear participants)
|
The 12 item Partner in Health Scale will be used to measure perceived self-management (active involvement to self-manage a chronic condition).
Each item is scored on a 0-9 point Likert scale.
Scores on individual items are summed to produce a total score ranging between 0 and 96, with 0 representing no perceived self-management and 96 representing full perceived self-management.
The total time for this questionnaire is 3 minutes.
The Partner in Health Scale is valid and reliable across numerous chronic conditions.
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Change from baseline self-reported perceived self-management at 12 months (ACL tear participants)
|
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Perceived self-management over 24 months (ACL tear participants)
Time Frame: Change from baseline self-reported perceived self-management at 24 months (ACL tear participants)
|
The 12 item Partner in Health Scale will be used to measure perceived self-management (active involvement to self-manage a chronic condition).
Each item is scored on a 0-9 point Likert scale.
Scores on individual items are summed to produce a total score ranging between 0 and 96, with 0 representing no perceived self-management and 96 representing full perceived self-management.
The total time for this questionnaire is 3 minutes.
The Partner in Health Scale is valid and reliable across numerous chronic conditions.
|
Change from baseline self-reported perceived self-management at 24 months (ACL tear participants)
|
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Self-reported function over 6 months (ACL tear participants)
Time Frame: Change from baseline self-reported function at 6 months (ACL tear participants)
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The 3 item Patient Specific Functional Scale will be used to identify, quantify and assess changes in functional limitations that are most relevant to participants.
This scale prompts participants to identify three activities important to them and rate their ability to perform each activity on a 10-point numerical rating scale.
Individual scale scores are summed and transformed to a 0-100 scale with higher scores indicating better outcomes.
The total time for this questionnaire is 3 minutes.
The Patient-Specific Functional Scale is valid and reliable for use in persons with a knee injury.
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Change from baseline self-reported function at 6 months (ACL tear participants)
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Self-reported function over 12 months (ACL tear participants)
Time Frame: Change from baseline self-reported function at 12 months (ACL tear participants)
|
The 3 item Patient Specific Functional Scale will be used to identify, quantify and assess changes in functional limitations that are most relevant to participants.
This scale prompts participants to identify three activities important to them and rate their ability to perform each activity on a 10-point numerical rating scale.
Individual scale scores are summed and transformed to a 0-100 scale with higher scores indicating better outcomes.
The total time for this questionnaire is 3 minutes.
The Patient-Specific Functional Scale is valid and reliable for use in persons with a knee injury.
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Change from baseline self-reported function at 12 months (ACL tear participants)
|
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Self-reported function over 24 months (ACL tear participants)
Time Frame: Change from baseline self-reported function at 24 months (ACL tear participants)
|
The 3 item Patient Specific Functional Scale will be used to identify, quantify and assess changes in functional limitations that are most relevant to participants.
This scale prompts participants to identify three activities important to them and rate their ability to perform each activity on a 10-point numerical rating scale.
Individual scale scores are summed and transformed to a 0-100 scale with higher scores indicating better outcomes.
The total time for this questionnaire is 3 minutes.
The Patient-Specific Functional Scale is valid and reliable for use in persons with a knee injury.
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Change from baseline self-reported function at 24 months (ACL tear participants)
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Self-reported knee-specific self-efficacy over 6 months (ACL tear participants)
Time Frame: Change from baseline self-reported knee-specific self-efficacy at 6 months (ACL tear participants)
|
Self-efficacy, or one's belief in their own ability to organize and execute the actions required to manage a prospective situation, can predict health behaviours including exercise participation.
The KSES is a valid and reliable measure of knee-specific self-efficacy in people with a sport-related knee injury in the previous 5-years.
The KSES consists of 22 items organized into 2 sub-scales (present and future self-efficacy).
Each item is scored on an 0-10-point Likert scale, with 0 indicating no confidence and 10 indicating full confidence.
Individual item scores are summed to produce a total score.
Higher scores indicate higher levels of self-efficacy.
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Change from baseline self-reported knee-specific self-efficacy at 6 months (ACL tear participants)
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Self-reported knee-specific self-efficacy over 12 months (ACL tear participants)
Time Frame: Change from baseline self-reported knee-specific self-efficacy at 12 months (ACL tear participants)
|
Self-efficacy, or one's belief in their own ability to organize and execute the actions required to manage a prospective situation, can predict health behaviours including exercise participation.
The KSES is a valid and reliable measure of knee-specific self-efficacy in people with a sport-related knee injury in the previous 5-years.
The KSES consists of 22 items organized into 2 sub-scales (present and future self-efficacy).
Each item is scored on an 0-10-point Likert scale, with 0 indicating no confidence and 10 indicating full confidence.
Individual item scores are summed to produce a total score.
Higher scores indicate higher levels of self-efficacy.
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Change from baseline self-reported knee-specific self-efficacy at 12 months (ACL tear participants)
|
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Self-reported knee-specific self-efficacy over 24 months (ACL tear participants)
Time Frame: Change from baseline self-reported knee-specific self-efficacy at 24 months (ACL tear participants)
|
Self-efficacy, or one's belief in their own ability to organize and execute the actions required to manage a prospective situation, can predict health behaviours including exercise participation.
The KSES is a valid and reliable measure of knee-specific self-efficacy in people with a sport-related knee injury in the previous 5-years.
The KSES consists of 22 items organized into 2 sub-scales (present and future self-efficacy).
Each item is scored on an 0-10-point Likert scale, with 0 indicating no confidence and 10 indicating full confidence.
Individual item scores are summed to produce a total score.
Higher scores indicate higher levels of self-efficacy.
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Change from baseline self-reported knee-specific self-efficacy at 24 months (ACL tear participants)
|
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Self-reported fear of movement and re-injury over 6 months (ACL tear participants)
Time Frame: Change from baseline self-reported fear of movement and re-injury at 6 months (ACL tear participants)
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The 11 item Tampa Scale of Kinesiophobia will be used to measure self-reported fear of movement and re-injury.
Each item is scored on a 0-4 point Likert-scale, with 0 indicating no fear of movement and 4 indicating greater fear of movement.
The item scores are summed to produce a total score ranging between 0 and 44, with higher values indicating a higher degree of fear of movement.
The total time for this questionnaire is 3 minutes.
The Tampa Scale of Kinesiophobia has evidence of known-group validity (scores discriminated between athletes who returned and did not return to pre-injury sports participation level after knee trauma).
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Change from baseline self-reported fear of movement and re-injury at 6 months (ACL tear participants)
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Self-reported fear of movement and re-injury over 12 months (ACL tear participants)
Time Frame: Change from baseline self-reported fear of movement and re-injury at 12 months (ACL tear participants)
|
The 11 item Tampa Scale of Kinesiophobia will be used to measure self-reported fear of movement and re-injury.
Each item is scored on a 0-4 point Likert-scale, with 0 indicating no fear of movement and 4 indicating greater fear of movement.
The item scores are summed to produce a total score ranging between 0 and 44, with higher values indicating a higher degree of fear of movement.
The total time for this questionnaire is 3 minutes.
The Tampa Scale of Kinesiophobia has evidence of known-group validity (scores discriminated between athletes who returned and did not return to pre-injury sports participation level after knee trauma).
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Change from baseline self-reported fear of movement and re-injury at 12 months (ACL tear participants)
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Self-reported fear of movement and re-injury over 24 months (ACL tear participants)
Time Frame: Change from baseline self-reported fear of movement and re-injury at 24 months (ACL tear participants)
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The 11 item Tampa Scale of Kinesiophobia will be used to measure self-reported fear of movement and re-injury.
Each item is scored on a 0-4 point Likert-scale, with 0 indicating no fear of movement and 4 indicating greater fear of movement.
The item scores are summed to produce a total score ranging between 0 and 44, with higher values indicating a higher degree of fear of movement.
The total time for this questionnaire is 3 minutes.
The Tampa Scale of Kinesiophobia has evidence of known-group validity (scores discriminated between athletes who returned and did not return to pre-injury sports participation level after knee trauma).
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Change from baseline self-reported fear of movement and re-injury at 24 months (ACL tear participants)
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Change in Knee Extension Power over 6 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 6 months (ACL tear participants)
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A computerized dynamometer (Biodex®) will be used to assess and calculate knee extension power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to straighten their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 6 months (ACL tear participants)
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Change in Knee Extension Power over 12 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 12 months (ACL tear participants)
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A computerized dynamometer (Biodex®) will be used to assess and calculate knee extension power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to straighten their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 12 months (ACL tear participants)
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Change in Knee Extension Power over 24 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 24 months (ACL tear participants)
|
A computerized dynamometer (Biodex®) will be used to assess and calculate knee extension power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to straighten their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 24 months (ACL tear participants)
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Change in Knee Flexion Power over 6 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 6 months (ACL tear participants)
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A computerized dynamometer (Biodex®) will be used to assess and calculate knee flexion power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to bend their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 6 months (ACL tear participants)
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Change in Knee Flexion Power over 12 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 12 months (ACL tear participants)
|
A computerized dynamometer (Biodex®) will be used to assess and calculate knee flexion power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to bend their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 12 months (ACL tear participants)
|
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Change in Knee Flexion Power over 24 months (ACL tear participants)
Time Frame: Change from baseline knee extensor muscle power at 24 months (ACL tear participants)
|
A computerized dynamometer (Biodex®) will be used to assess and calculate knee flexion power (Watts).
After completing the protocol for normalized peak concentric knee extension and flexion torque the participants' knee joint will be fixed in 60 degrees of sagittal plane flexion.
After three practice trials and a 30-second rest, participants will be instructed to bend their knee as hard and as fast as they can for five seconds.
This will be repeated five times with a 30-second rest period between each repetition.
The total time for this test is 10 minutes.
Computerized dynamometry (Biodex®) is a reliable, valid, relevant, and recommended measure of muscle power.
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Change from baseline knee extensor muscle power at 24 months (ACL tear participants)
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Change in Daily Average Moderate to Vigorous Physical Activity over 6 months (ACL tear participants)
Time Frame: Change from baseline daily average moderate to vigorous physical activity at 6 months (ACL tear participants)
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A small, lightweight hip worn wearable triaxial accelerometer (ActiGraph GT3X®) will be used to assess physical activity.
Participants will be asked to wear this device (attached via an elastic belt around their waist), for a period of 7 consecutive days removing only for bathing/swimming activities.
The average number of 10-minute moderate-to-vigorous physical activity bouts over the 7-day period will be calculated.
Accelerometry is a valid measure of physical activity in youth and young adult populations.
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Change from baseline daily average moderate to vigorous physical activity at 6 months (ACL tear participants)
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Change in Daily Average Moderate to Vigorous Physical Activity over 12 months (ACL tear participants)
Time Frame: Change from baseline daily average moderate to vigorous physical activity at 12 months (ACL tear participants)
|
A small, lightweight hip worn wearable triaxial accelerometer (ActiGraph GT3X®) will be used to assess physical activity.
Participants will be asked to wear this device (attached via an elastic belt around their waist), for a period of 7 consecutive days removing only for bathing/swimming activities.
The average number of 10-minute moderate-to-vigorous physical activity bouts over the 7-day period will be calculated.
Accelerometry is a valid measure of physical activity in youth and young adult populations.
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Change from baseline daily average moderate to vigorous physical activity at 12 months (ACL tear participants)
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Change in Daily Average Moderate to Vigorous Physical Activity over 24 months (ACL tear participants)
Time Frame: Change from baseline daily average moderate to vigorous physical activity at 24 months (ACL tear participants)
|
A small, lightweight hip worn wearable triaxial accelerometer (ActiGraph GT3X®) will be used to assess physical activity.
Participants will be asked to wear this device (attached via an elastic belt around their waist), for a period of 7 consecutive days removing only for bathing/swimming activities.
The average number of 10-minute moderate-to-vigorous physical activity bouts over the 7-day period will be calculated.
Accelerometry is a valid measure of physical activity in youth and young adult populations.
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Change from baseline daily average moderate to vigorous physical activity at 24 months (ACL tear participants)
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Change in Self-Reported Physical Activity over 6 months (ACL tear participants)
Time Frame: Change from baseline self-reported physical activity at 6 months (ACL tear participants)
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The 4 item Godin Leisure Time Questionnaire will be used to measure self-reported physical activity.
Using the number of 15-minute bouts of mild, moderate, and strenuous physical activity a participant engages in over a typical seven-day period weekly metabolic equivalents of physical activity are calculated.
The total time for this questionnaire is 1 minute.
The Godin Leisure Time Questionnaire has been validated to assess physical activity.
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Change from baseline self-reported physical activity at 6 months (ACL tear participants)
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Change in Self-Reported Physical Activity over 12 months (ACL tear participants)
Time Frame: Change from baseline self-reported physical activity at 12 months (ACL tear participants)
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The 4 item Godin Leisure Time Questionnaire will be used to measure self-reported physical activity.
Using the number of 15-minute bouts of mild, moderate, and strenuous physical activity a participant engages in over a typical seven-day period weekly metabolic equivalents of physical activity are calculated.
The total time for this questionnaire is 1 minute.
The Godin Leisure Time Questionnaire has been validated to assess physical activity.
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Change from baseline self-reported physical activity at 12 months (ACL tear participants)
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Change in Self-Reported Physical Activity over 24 months (ACL tear participants)
Time Frame: Change from baseline self-reported physical activity at 24 months (ACL tear participants)
|
The 4 item Godin Leisure Time Questionnaire will be used to measure self-reported physical activity.
Using the number of 15-minute bouts of mild, moderate, and strenuous physical activity a participant engages in over a typical seven-day period weekly metabolic equivalents of physical activity are calculated.
The total time for this questionnaire is 1 minute.
The Godin Leisure Time Questionnaire has been validated to assess physical activity.
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Change from baseline self-reported physical activity at 24 months (ACL tear participants)
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Change in Health-Related Quality of Life over 6 months (ACL tear participants)
Time Frame: Change from baseline health-related quality of life at 6 months (ACL tear participants)
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The EQ-5D-5L is a simple, reliable self-report instrument designed to assess generic health for clinical and economic appraisal across multiple countries and conditions (see attachment 16-EQ-5D-5L).
The EQ-5D-5L provides information about 5 levels of problems across 5 health domains (anxiety/depression, pain/discomfort, mobility, self-care, usual activities), and a 0-to-100 visual analogue scale rating for self-related health (EQ-5D-5Lindex).
EQ-5D-5Lindex values will be reported at each time point.
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Change from baseline health-related quality of life at 6 months (ACL tear participants)
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Change in Health-Related Quality of Life over 12 months (ACL tear participants)
Time Frame: Change from baseline health-related quality of life at 12 months (ACL tear participants)
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The EQ-5D-5L is a simple, reliable self-report instrument designed to assess generic health for clinical and economic appraisal across multiple countries and conditions (see attachment 16-EQ-5D-5L).
The EQ-5D-5L provides information about 5 levels of problems across 5 health domains (anxiety/depression, pain/discomfort, mobility, self-care, usual activities), and a 0-to-100 visual analogue scale rating for self-related health (EQ-5D-5Lindex).
EQ-5D-5Lindex values will be reported at each time point.
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Change from baseline health-related quality of life at 12 months (ACL tear participants)
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Change in Health-Related Quality of Life over 24 months (ACL tear participants)
Time Frame: Change from baseline health-related quality of life at 24 months (ACL tear participants)
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The EQ-5D-5L is a simple, reliable self-report instrument designed to assess generic health for clinical and economic appraisal across multiple countries and conditions (see attachment 16-EQ-5D-5L).
The EQ-5D-5L provides information about 5 levels of problems across 5 health domains (anxiety/depression, pain/discomfort, mobility, self-care, usual activities), and a 0-to-100 visual analogue scale rating for self-related health (EQ-5D-5Lindex).
EQ-5D-5Lindex values will be reported at each time point.
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Change from baseline health-related quality of life at 24 months (ACL tear participants)
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Change in Fat Mass Index over 6 months (ACL tear participants)
Time Frame: Change from baseline fat mass index at 6 months (ACL tear participants)
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Fat mass index (kg/m2) will be measured with Bioelectrical Impedance (Tanita Body Composition Analyzer, Model TBF-300A, Tanita Inc., USA).
Participants will stand barefoot on the bioelectrical impedance platform during which the resistance to the flow of this single, high frequency alternating electrical current (500 A at 50 kHz) will be measured.
Bioelectrical Impedance is a feasible method for assessing and tracking body composition in clinical settings and has been shown to be valid and reliable in child, youth, and adult populations.
This test will take 5 minutes to complete.
The device will be calibrated prior to each scan (according to the manufacturer's protocol).
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Change from baseline fat mass index at 6 months (ACL tear participants)
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Change in Fat Mass Index over 12 months (ACL tear participants)
Time Frame: Change from baseline fat mass index at 12 months (ACL tear participants)
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Fat mass index (kg/m2) will be measured with Bioelectrical Impedance (Tanita Body Composition Analyzer, Model TBF-300A, Tanita Inc., USA).
Participants will stand barefoot on the bioelectrical impedance platform during which the resistance to the flow of this single, high frequency alternating electrical current (500 A at 50 kHz) will be measured.
Bioelectrical Impedance is a feasible method for assessing and tracking body composition in clinical settings and has been shown to be valid and reliable in child, youth, and adult populations.
This test will take 5 minutes to complete.
The device will be calibrated prior to each scan (according to the manufacturer's protocol).
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Change from baseline fat mass index at 12 months (ACL tear participants)
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Change in Fat Mass Index over 24 months (ACL tear participants)
Time Frame: Change from baseline fat mass index at 24 months (ACL tear participants)
|
Fat mass index (kg/m2) will be measured with Bioelectrical Impedance (Tanita Body Composition Analyzer, Model TBF-300A, Tanita Inc., USA).
Participants will stand barefoot on the bioelectrical impedance platform during which the resistance to the flow of this single, high frequency alternating electrical current (500 A at 50 kHz) will be measured.
Bioelectrical Impedance is a feasible method for assessing and tracking body composition in clinical settings and has been shown to be valid and reliable in child, youth, and adult populations.
This test will take 5 minutes to complete.
The device will be calibrated prior to each scan (according to the manufacturer's protocol).
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Change from baseline fat mass index at 24 months (ACL tear participants)
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Change in Knee Cartilage Health over 24 months (ACL tear participants)
Time Frame: Change from baseline knee cartilage health at 24 months (ACL tear participants)
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Preliminary research links exercise-therapy to better knee cartilage health in people at risk of post-traumatic OA (post-meniscectomy) and early atraumatic OA up to 12-months.
We will provide further insight over 24-months by quantifying changes in cartilage T2 relaxation times (sagittal multi-echo-spin-echo pulse sequences;12 echos) which are widely used as a marker of early degeneration.
An senior imaging scientist will segment the cartilage manually and calculate average T2 for femoral, tibial and patellar cartilage plates.
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Change from baseline knee cartilage health at 24 months (ACL tear participants)
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Collaborators and Investigators
Sponsor
Investigators
- Principal Investigator: Jackie L Whittaker, BScPT, PhD, University of British Columbia
Publications and helpful links
General Publications
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- Frobell RB, Roos EM, Roos HP, Ranstam J, Lohmander LS. A randomized trial of treatment for acute anterior cruciate ligament tears. N Engl J Med. 2010 Jul 22;363(4):331-42. doi: 10.1056/NEJMoa0907797. Erratum In: N Engl J Med. 2010 Aug 26;363(9):893.
- Toomey CM, Whittaker JL, Nettel-Aguirre A, Reimer RA, Woodhouse LJ, Ghali B, Doyle-Baker PK, Emery CA. Higher Fat Mass Is Associated With a History of Knee Injury in Youth Sport. J Orthop Sports Phys Ther. 2017 Feb;47(2):80-87. doi: 10.2519/jospt.2017.7101.
- Whittaker JL, Toomey CM, Nettel-Aguirre A, Jaremko JL, Doyle-Baker PK, Woodhouse LJ, Emery CA. Health-related Outcomes after a Youth Sport-related Knee Injury. Med Sci Sports Exerc. 2019 Feb;51(2):255-263. doi: 10.1249/MSS.0000000000001787.
- Undheim MB, Cosgrave C, King E, Strike S, Marshall B, Falvey E, Franklyn-Miller A. Isokinetic muscle strength and readiness to return to sport following anterior cruciate ligament reconstruction: is there an association? A systematic review and a protocol recommendation. Br J Sports Med. 2015 Oct;49(20):1305-10. doi: 10.1136/bjsports-2014-093962. Epub 2015 Jun 23.
- Thomee P, Wahrborg P, Borjesson M, Thomee R, Eriksson BI, Karlsson J. Self-efficacy, symptoms and physical activity in patients with an anterior cruciate ligament injury: a prospective study. Scand J Med Sci Sports. 2007 Jun;17(3):238-45. doi: 10.1111/j.1600-0838.2006.00557.x. Epub 2006 Jun 15.
- Collins NJ, Prinsen CA, Christensen R, Bartels EM, Terwee CB, Roos EM. Knee Injury and Osteoarthritis Outcome Score (KOOS): systematic review and meta-analysis of measurement properties. Osteoarthritis Cartilage. 2016 Aug;24(8):1317-29. doi: 10.1016/j.joca.2016.03.010. Epub 2016 Mar 21.
- Amireault S, Godin G. The Godin-Shephard leisure-time physical activity questionnaire: validity evidence supporting its use for classifying healthy adults into active and insufficiently active categories. Percept Mot Skills. 2015 Apr;120(2):604-22. doi: 10.2466/03.27.PMS.120v19x7. Epub 2015 Mar 23.
- Smith D, Harvey P, Lawn S, Harris M, Battersby M. Measuring chronic condition self-management in an Australian community: factor structure of the revised Partners in Health (PIH) scale. Qual Life Res. 2017 Jan;26(1):149-159. doi: 10.1007/s11136-016-1368-5. Epub 2016 Jul 18.
- Kvist J, Ek A, Sporrstedt K, Good L. Fear of re-injury: a hindrance for returning to sports after anterior cruciate ligament reconstruction. Knee Surg Sports Traumatol Arthrosc. 2005 Jul;13(5):393-7. doi: 10.1007/s00167-004-0591-8. Epub 2005 Feb 10.
- Talma H, Chinapaw MJ, Bakker B, HiraSing RA, Terwee CB, Altenburg TM. Bioelectrical impedance analysis to estimate body composition in children and adolescents: a systematic review and evidence appraisal of validity, responsiveness, reliability and measurement error. Obes Rev. 2013 Nov;14(11):895-905. doi: 10.1111/obr.12061. Epub 2013 Jul 12.
- Leahy S, O'Neill C, Sohun R, Jakeman P. A comparison of dual energy X-ray absorptiometry and bioelectrical impedance analysis to measure total and segmental body composition in healthy young adults. Eur J Appl Physiol. 2012 Feb;112(2):589-95. doi: 10.1007/s00421-011-2010-4. Epub 2011 May 26.
- Roos EM, Roos HP, Lohmander LS, Ekdahl C, Beynnon BD. Knee Injury and Osteoarthritis Outcome Score (KOOS)--development of a self-administered outcome measure. J Orthop Sports Phys Ther. 1998 Aug;28(2):88-96. doi: 10.2519/jospt.1998.28.2.88.
- Ackerman IN, Bohensky MA, Zomer E, Tacey M, Gorelik A, Brand CA, de Steiger R. The projected burden of primary total knee and hip replacement for osteoarthritis in Australia to the year 2030. BMC Musculoskelet Disord. 2019 Feb 23;20(1):90. doi: 10.1186/s12891-019-2411-9.
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- Conner-Spady BL, Marshall DA, Bohm E, Dunbar MJ, Loucks L, Al Khudairy A, Noseworthy TW. Reliability and validity of the EQ-5D-5L compared to the EQ-5D-3L in patients with osteoarthritis referred for hip and knee replacement. Qual Life Res. 2015 Jul;24(7):1775-84. doi: 10.1007/s11136-014-0910-6. Epub 2015 Jan 3.
- Feng YS, Kohlmann T, Janssen MF, Buchholz I. Psychometric properties of the EQ-5D-5L: a systematic review of the literature. Qual Life Res. 2021 Mar;30(3):647-673. doi: 10.1007/s11136-020-02688-y. Epub 2020 Dec 7.
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- Runhaar J, Schiphof D, van Meer B, Reijman M, Bierma-Zeinstra SM, Oei EH. How to define subregional osteoarthritis progression using semi-quantitative MRI osteoarthritis knee score (MOAKS). Osteoarthritis Cartilage. 2014 Oct;22(10):1533-6. doi: 10.1016/j.joca.2014.06.022.
- Truong LK, Mosewich AD, Miciak M, Pajkic A, Silvester-Lee T, Li LC, Whittaker JL. "I feel I'm leading the charge." Experiences of a virtual physiotherapist-guided knee health program for persons at-risk of osteoarthritis after a sport-related knee injury. Osteoarthr Cartil Open. 2022 Dec 27;5(1):100333. doi: 10.1016/j.ocarto.2022.100333. eCollection 2023 Mar.
- Whittaker JL, Truong LK, Silvester-Lee T, Losciale JM, Miciak M, Pajkic A, Le CY, Hoens AM, Mosewich AD, Hunt MA, Li LC, Roos EM. Feasibility of the SOAR (Stop OsteoARthritis) program. Osteoarthr Cartil Open. 2022 Jan 28;4(1):100239. doi: 10.1016/j.ocarto.2022.100239. eCollection 2022 Mar.
- Whittaker JL, Truong LK, Losciale JM, Silvester-Lee T, Miciak M, Pajkic A, Le CY, Hoens AM, Mosewich A, Hunt MA, Li LC, Roos EM. Efficacy of the SOAR knee health program: protocol for a two-arm stepped-wedge randomized delayed-controlled trial. BMC Musculoskelet Disord. 2022 Jan 25;23(1):85. doi: 10.1186/s12891-022-05019-z.
- Culvenor AG, West TJ, Bruder AM, Scholes MJ, Barton CJ, Roos EM, Oei E, McPhail SM, Souza RB, Lee J, Patterson BE, Girdwood MA, Couch JL, Crossley KM. SUpervised exercise-therapy and Patient Education Rehabilitation (SUPER) versus minimal intervention for young adults at risk of knee osteoarthritis after ACL reconstruction: SUPER-Knee randomised controlled trial protocol. BMJ Open. 2023 Jan 18;13(1):e068279. doi: 10.1136/bmjopen-2022-068279.
- Roos EM, Boyle E, Frobell RB, Lohmander LS, Ingelsrud LH. It is good to feel better, but better to feel good: whether a patient finds treatment 'successful' or not depends on the questions researchers ask. Br J Sports Med. 2019 Dec;53(23):1474-1478. doi: 10.1136/bjsports-2018-100260. Epub 2019 May 9.
- Whittaker JL, Culvenor AG, Juhl CB, Berg B, Bricca A, Filbay SR, Holm P, Macri E, Urhausen AP, Ardern CL, Bruder AM, Bullock GS, Ezzat AM, Girdwood M, Haberfield M, Hughes M, Ingelsrud LH, Khan KM, Le CY, Losciale JM, Lundberg M, Miciak M, Oiestad BE, Patterson B, Raisanen AM, Skou ST, Thorlund JB, Toomey C, Truong LK, Meer BLV, West TJ, Young JJ, Lohmander LS, Emery C, Risberg MA, van Middelkoop M, Roos EM, Crossley KM. OPTIKNEE 2022: consensus recommendations to optimise knee health after traumatic knee injury to prevent osteoarthritis. Br J Sports Med. 2022 Dec;56(24):1393-1405. doi: 10.1136/bjsports-2022-106299. Epub 2022 Nov 15.
- Ezzat AM, Whittaker JL, Brussoni M, Masse L, Emery CA. Translation and cross-cultural adaptation of the English version of the knee self-efficacy scale. Clinical journal of Sport Medicine. 2019;29(3):e57-58.
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- Cleveland RJ, Alvarez C, Schwartz TA, Losina E, Renner JB, Jordan JM, Callahan LF. The impact of painful knee osteoarthritis on mortality: a community-based cohort study with over 24 years of follow-up. Osteoarthritis Cartilage. 2019 Apr;27(4):593-602. doi: 10.1016/j.joca.2018.12.008. Epub 2018 Dec 22.
- Roos EM, Dahlberg L. Positive effects of moderate exercise on glycosaminoglycan content in knee cartilage: a four-month, randomized, controlled trial in patients at risk of osteoarthritis. Arthritis Rheum. 2005 Nov;52(11):3507-14. doi: 10.1002/art.21415.
- Munukka M, Waller B, Hakkinen A, Nieminen MT, Lammentausta E, Kujala UM, Paloneva J, Kautiainen H, Kiviranta I, Heinonen A. Physical Activity Is Related with Cartilage Quality in Women with Knee Osteoarthritis. Med Sci Sports Exerc. 2017 Jul;49(7):1323-1330. doi: 10.1249/MSS.0000000000001238.
- Koli J, Multanen J, Kujala UM, Hakkinen A, Nieminen MT, Kautiainen H, Lammentausta E, Jamsa T, Ahola R, Selanne H, Kiviranta I, Heinonen A. Effects of Exercise on Patellar Cartilage in Women with Mild Knee Osteoarthritis. Med Sci Sports Exerc. 2015 Sep;47(9):1767-74. doi: 10.1249/MSS.0000000000000629.
- Guermazi A, Alizai H, Crema MD, Trattnig S, Regatte RR, Roemer FW. Compositional MRI techniques for evaluation of cartilage degeneration in osteoarthritis. Osteoarthritis Cartilage. 2015 Oct;23(10):1639-53. doi: 10.1016/j.joca.2015.05.026. Epub 2015 Jun 5.
- Matzat SJ, van Tiel J, Gold GE, Oei EH. Quantitative MRI techniques of cartilage composition. Quant Imaging Med Surg. 2013 Jun;3(3):162-74. doi: 10.3978/j.issn.2223-4292.2013.06.04.
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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
- REB# H23-03544
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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Clinical Trials on Stop OsteoARthritis (SOAR) program
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