- ICH GCP
- US Clinical Trials Registry
- Clinical Trial NCT05612880
Physical Function During ARSI Treatment
Assessing Physical Function Following Androgen Receptor Signaling Inhibitor Treatment for Metastatic Prostate Cancer
Study Overview
Status
Conditions
Intervention / Treatment
Detailed Description
The purpose of this pilot trial is to obtain objective measurements of physical function in men with metastatic prostate cancer (mPC) initiating ARSI treatment at baseline, 12, and 24 weeks later. Grip strength, muscular power, body composition, balance, arterial stiffness, along with QoL, fatigue, anxiety, and depression will also be measured. Finally, the potential associations in primary and secondary outcomes by the type of ARSI, stage of mPC, and physical activity levels will be explored.
With more men requiring ARSI treatment for metastatic castrate resistant prostate cancer (mCRPC), as well as being an efficacious option earlier in metastatic castrate sensitive prostate cancer (mCSPC), accurate estimates of declines from ARSI initiation are required to determine the true effects. Utilizing novel assessments in mPC like muscular power tests will provide insight into potentially more relevant assessments and outcomes to intervene on. The data from this pilot study will also determine effect sizes to adequately power future studies.
Study Type
Enrollment (Actual)
Contacts and Locations
Study Locations
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North Carolina
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Chapel Hill, North Carolina, United States, 27599
- Lineberger Comprehensive Cancer Center at University of North Carolina, Chapel Hill
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Participation Criteria
Eligibility Criteria
Ages Eligible for Study
Accepts Healthy Volunteers
Sampling Method
Study Population
Description
Inclusion Criteria:
- Written informed consent obtained to participate in the study and HIPAA authorization for release of personal health information.
- Subjects is willing and able to comply with study procedures based on the judgement of the investigator or protocol designee.
- Age ≥ 18 years at the time of consent.
- Eastern Cooperative Oncology Group (ECOG) Performance Status of 0 or 1.
- Diagnosis of metastatic disease from prostate cancer, or recurrent disease following definitive local therapy of prostate cancer, as assessed by their clinician
- Initiation of an ARSI (e.g., abiraterone, enzalutamide, apalutamide, or darolutamide) for mPC with concurrent androgen deprivation therapy (ADT).
- Availability to begin baseline testing within 8 weeks of ARSI treatment initiation.
- Physician clearance to perform physical assessments.
- Ability to speak and read English.
Exclusion Criteria:
- Prior ARSI treatment
- Current chemotherapy
- History of bone fractures or musculoskeletal injuries
- Neurological conditions that affect balance and/or muscle strength
- Intention to leave the region prior to completion of study
- Dementia, altered mental status or any psychiatric condition prohibiting the understanding or rendering of informed consent
Study Plan
How is the study designed?
Design Details
- Observational Models: Case-Only
- Time Perspectives: Prospective
Cohorts and Interventions
Group / Cohort |
Intervention / Treatment |
|---|---|
|
Non-intervention controls
Men with advanced prostate cancer initiating androgen receptor signaling inhibitor treatment.
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Prior to or within 8 weeks of ARSI initiation, men with advanced prostate cancer will perform baseline testing, with follow ups at 12 and 24 weeks
Other Names:
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What is the study measuring?
Primary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Physical function: 400m Walk
Time Frame: Baseline
|
The time to walk 400m (in sec) will be performed as an indicator of walking endurance.
A lower total time (and therefore higher gait speed) indicates greater cardiorespiratory capacity.
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Baseline
|
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Physical function: 400m Walk
Time Frame: 12 weeks
|
The time to walk 400m (in sec) will be performed as an indicator of walking endurance.
A lower total time (and therefore higher gait speed) indicates greater cardiorespiratory capacity.
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12 weeks
|
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Physical function: 400m Walk
Time Frame: 24 weeks
|
The time to walk 400m (in sec) will be performed as an indicator of walking endurance.
A lower total time (and therefore higher gait speed) indicates greater cardiorespiratory capacity.
|
24 weeks
|
|
Physical function: Timed Up and Go
Time Frame: Baseline
|
The time to complete (in sec) the 2.44m (8 ft) timed up and go test will be performed as an indicator of agility, balance, and physical function.
A lower total time is indicative of greater performance.
|
Baseline
|
|
Physical function: Timed Up and Go
Time Frame: 12 weeks
|
The time to complete (in sec) the 2.44m (8 ft) timed up and go test will be performed as an indicator of agility, balance, and physical function.
A lower total time is indicative of greater performance.
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12 weeks
|
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Physical function: Timed Up and Go
Time Frame: 24 weeks
|
The time to complete (in sec) the 2.44m (8 ft) timed up and go test will be performed as an indicator of agility, balance, and physical function.
A lower total time is indicative of greater performance.
|
24 weeks
|
|
Physical function: Short physical performance battery
Time Frame: Baseline
|
The short physical performance battery (SPPB) is a group of measures that combines the results of the gait speed, chair stand and balance tests.
It has been used as a predictive tool for possible disability and can aid in the monitoring of function in older people.
The scores range from 0 (worst performance) to 12 (best performance).
The SPPB has been shown to have predictive validity showing a gradient of risk for mortality, nursing home admission, and disability.
Clinically meaningful changes are 0.3-1.0
points.
|
Baseline
|
|
Physical function: Short physical performance battery
Time Frame: 12 weeks
|
The short physical performance battery (SPPB) is a group of measures that combines the results of the gait speed, chair stand and balance tests.
It has been used as a predictive tool for possible disability and can aid in the monitoring of function in older people.
The scores range from 0 (worst performance) to 12 (best performance).
The SPPB has been shown to have predictive validity showing a gradient of risk for mortality, nursing home admission, and disability.
Clinically meaningful changes are 0.3-1.0
points.
|
12 weeks
|
|
Physical function: Short physical performance battery
Time Frame: 24weeks
|
The short physical performance battery (SPPB) is a group of measures that combines the results of the gait speed, chair stand and balance tests.
It has been used as a predictive tool for possible disability and can aid in the monitoring of function in older people.
The scores range from 0 (worst performance) to 12 (best performance).
The SPPB has been shown to have predictive validity showing a gradient of risk for mortality, nursing home admission, and disability.
Clinically meaningful changes are 0.3-1.0
points.
|
24weeks
|
Secondary Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Body composition: lean mass
Time Frame: Baseline
|
To report total body lean mass using dual-energy x-ray absorptiometry (DXA).
|
Baseline
|
|
Body composition: lean mass
Time Frame: 12 weeks
|
To report total body lean mass using dual-energy x-ray absorptiometry (DXA).
|
12 weeks
|
|
Body composition: lean mass
Time Frame: 24 weeks
|
To report total body lean mass using dual-energy x-ray absorptiometry (DXA).
|
24 weeks
|
|
Body composition: fat mass
Time Frame: Baseline
|
To report total body fat mass using dual-energy x-ray absorptiometry (DXA).
|
Baseline
|
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Body composition: fat mass
Time Frame: 12 weeks
|
To report total body fat mass using dual-energy x-ray absorptiometry (DXA).
|
12 weeks
|
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Body composition: fat mass
Time Frame: 24 weeks
|
To report total body fat mass using dual-energy x-ray absorptiometry (DXA).
|
24 weeks
|
|
Body composition: bone mass
Time Frame: Baseline
|
To report total body bone mass using dual-energy x-ray absorptiometry (DXA).
|
Baseline
|
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Body composition: bone mass
Time Frame: 12 weeks
|
To report total body bone mass using dual-energy x-ray absorptiometry (DXA).
|
12 weeks
|
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Body composition: bone mass
Time Frame: 24weeks
|
To report total body bone mass using dual-energy x-ray absorptiometry (DXA).
|
24weeks
|
|
Body composition: thigh muscle cross-sectional area
Time Frame: Baseline
|
Muscle size will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
|
Baseline
|
|
Body composition: thigh muscle cross-sectional area
Time Frame: 12 weeks
|
Muscle size will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
|
12 weeks
|
|
Body composition: thigh muscle cross-sectional area
Time Frame: 24 weeks
|
Muscle size will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
|
24 weeks
|
|
Body composition: thigh muscle quality
Time Frame: Baseline
|
Muscle architecture will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
Muscle quality is reported in arbitrary units, where a lower value indicates a higher/better muscle quality.
|
Baseline
|
|
Body composition: thigh muscle quality
Time Frame: 12 weeks
|
Muscle architecture will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
Muscle quality is reported in arbitrary units, where a lower value indicates a higher/better muscle quality.
|
12 weeks
|
|
Body composition: thigh muscle quality
Time Frame: 24 weeks
|
Muscle architecture will be analyzed using ultrasound of the vastus lateralis of the dominant leg.
Higher muscle mass and quality are associated with greater muscle strength, physical function, QoL, and mortality.
Muscle quality is reported in arbitrary units, where a lower value indicates a higher/better muscle quality.
|
24 weeks
|
|
Body composition: skeletal muscle
Time Frame: Baseline
|
CT scans will also be performed to assess skeletal muscle (SM).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -29 to 150 for SM.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
Baseline
|
|
Body composition: skeletal muscle
Time Frame: 12 weeks
|
CT scans will also be performed to assess skeletal muscle (SM).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -29 to 150 for SM.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
12 weeks
|
|
Body composition: skeletal muscle
Time Frame: 24 weeks
|
CT scans will also be performed to assess skeletal muscle (SM).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -29 to 150 for SM.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
24 weeks
|
|
Body composition: subcutaneous adipose tissue
Time Frame: Baseline
|
CT scans will also be performed to subcutaneous adipose tissue (SAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -190 to -30 for SAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
Baseline
|
|
Body composition: subcutaneous adipose tissue
Time Frame: 12 weeks
|
CT scans will also be performed to subcutaneous adipose tissue (SAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -190 to -30 for SAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
12 weeks
|
|
Body composition: subcutaneous adipose tissue
Time Frame: 24 weeks
|
CT scans will also be performed to subcutaneous adipose tissue (SAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -190 to -30 for SAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
24 weeks
|
|
Body composition: visceral adipose tissue
Time Frame: Baseline
|
CT scans will also be performed to assess visceral adipose tissue (VAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -150 to -50 for VAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
Baseline
|
|
Body composition: visceral adipose tissue
Time Frame: 12 weeks
|
CT scans will also be performed to assess visceral adipose tissue (VAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -150 to -50 for VAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
12 weeks
|
|
Body composition: visceral adipose tissue
Time Frame: 24 weeks
|
CT scans will also be performed to assess visceral adipose tissue (VAT).
The L3 scan is uploaded into a software called SliceOmatic (TomoVision, Montreal, Quebec, Canada) to segment L3 into cross-sectional SM area, SAT area, and VAT area based on Hounsfield Units (HU) ranges: -150 to -50 for VAT.
An add-on module called Automated Body composition Analyzer using Computed tomography image Segmentation (ABACS) automatically performs the segmentation and produces an unbiased estimation.
|
24 weeks
|
|
Grip Strength
Time Frame: Baseline
|
Grip strength will be assessed using a handgrip dynamometer.
Grip strength is based on the maximal voluntary contraction of the subject's upper body muscles.
One practice repetition is performed on each side.
Three trials are performed on each side, alternating sides after every repetition.
The maximal grip score from all six trials is recorded.
|
Baseline
|
|
Grip Strength
Time Frame: 12 weeks
|
Grip strength will be assessed using a handgrip dynamometer.
Grip strength is based on the maximal voluntary contraction of the subject's upper body muscles.
One practice repetition is performed on each side.
Three trials are performed on each side, alternating sides after every repetition.
The maximal grip score from all six trials is recorded.
|
12 weeks
|
|
Grip Strength
Time Frame: 24 weeks
|
Grip strength will be assessed using a handgrip dynamometer.
Grip strength is based on the maximal voluntary contraction of the subject's upper body muscles.
One practice repetition is performed on each side.
Three trials are performed on each side, alternating sides after every repetition.
The maximal grip score from all six trials is recorded.
|
24 weeks
|
|
Muscle Power
Time Frame: Baseline
|
Muscular power will be assessed using a linear position transducer (LPT).
A sit-to-stand (STS) power test will be performed.
Two practice repetitions are performed.
Subsequently, three trial repetitions are performed, each with 60 seconds of rest in between.
The greatest peak and mean power output in watts (W) of the three trial repetitions are used for analysis.
|
Baseline
|
|
Muscle Power
Time Frame: 12 weeks
|
Muscular power will be assessed using a linear position transducer (LPT).
A sit-to-stand (STS) power test will be performed.
Two practice repetitions are performed.
Subsequently, three trial repetitions are performed, each with 60 seconds of rest in between.
The greatest peak and mean power output in watts (W) of the three trial repetitions are used for analysis.
|
12 weeks
|
|
Muscle Power
Time Frame: 24 weeks
|
Muscular power will be assessed using a linear position transducer (LPT).
A sit-to-stand (STS) power test will be performed.
Two practice repetitions are performed.
Subsequently, three trial repetitions are performed, each with 60 seconds of rest in between.
The greatest peak and mean power output in watts (W) of the three trial repetitions are used for analysis.
|
24 weeks
|
|
Fatigue: FACIT-F
Time Frame: Baseline
|
Fatigue will be measured using the Functional Assessment of Chronic Illness Therapy Fatigue, a 1-page form that uses a rating scale that goes from 0 (no fatigue) to 10 (severe fatigue).
It assesses the patient's fatigue levels in the last 7 days.
It also measures how usual activities, performing work, walking, relationship, and enjoyment of life are affected by fatigue.
A higher score indicates higher levels of perceived fatigue.
Clinically meaningful changes are 3 points.
|
Baseline
|
|
Fatigue: FACIT-F
Time Frame: 12 weeks
|
Fatigue will be measured using the Functional Assessment of Chronic Illness Therapy Fatigue, a 1-page form that uses a rating scale that goes from 0 (no fatigue) to 10 (severe fatigue).
It assesses the patient's fatigue levels in the last 7 days.
It also measures how usual activities, performing work, walking, relationship, and enjoyment of life are affected by fatigue.
A higher score indicates higher levels of perceived fatigue.
Clinically meaningful changes are 3 points.
|
12 weeks
|
|
Fatigue: FACIT-F
Time Frame: 24 weeks
|
Fatigue will be measured using the Functional Assessment of Chronic Illness Therapy Fatigue, a 1-page form that uses a rating scale that goes from 0 (no fatigue) to 10 (severe fatigue).
It assesses the patient's fatigue levels in the last 7 days.
It also measures how usual activities, performing work, walking, relationship, and enjoyment of life are affected by fatigue.
A higher score indicates higher levels of perceived fatigue.
Clinically meaningful changes are 3 points.
|
24 weeks
|
|
Depression and Anxiety
Time Frame: Baseline
|
Depression will be measured using the Hospital Anxiety and Depression Scale (HADS), a concise, self-administered 1 page form that categorizes anxiety and depression.
The total score goes from 0-21, and scores are categorized from minimal to severe depression/anxiety, with higher total scores indicate worse outcomes.
|
Baseline
|
|
Depression and Anxiety
Time Frame: 12 weeks
|
Depression will be measured using the Hospital Anxiety and Depression Scale (HADS), a concise, self-administered 1 page form that categorizes anxiety and depression.
The total score goes from 0-21, and scores are categorized from minimal to severe depression/anxiety, with higher total scores indicate worse outcomes.
|
12 weeks
|
|
Depression and Anxiety
Time Frame: 24 weeks
|
Depression will be measured using the Hospital Anxiety and Depression Scale (HADS), a concise, self-administered 1 page form that categorizes anxiety and depression.
The total score goes from 0-21, and scores are categorized from minimal to severe depression/anxiety, with higher total scores indicate worse outcomes.
|
24 weeks
|
|
Bone Pain: FACT-BP
Time Frame: Baseline
|
Bone pain will be determined using the FACT-BP questionnaire.
FACT-BP is a 15-item scale assessing cancer-related bone pain and its effects on quality of life (QoL); the higher the aggregate score, the less the bone pain and/or the better the QoL.
All scales score from 0-4 and a high scale score represents a higher response level.
Minimal important differences for FACT-BP range from 3-7 points.
|
Baseline
|
|
Bone Pain: FACT-BP
Time Frame: 12 weeks
|
Bone pain will be determined using the FACT-BP questionnaire.
FACT-BP is a 15-item scale assessing cancer-related bone pain and its effects on quality of life (QoL); the higher the aggregate score, the less the bone pain and/or the better the QoL.
All scales score from 0-4 and a high scale score represents a higher response level.
Minimal important differences for FACT-BP range from 3-7 points.
|
12 weeks
|
|
Bone Pain: FACT-BP
Time Frame: 24 weeks
|
Bone pain will be determined using the FACT-BP questionnaire.
FACT-BP is a 15-item scale assessing cancer-related bone pain and its effects on quality of life (QoL); the higher the aggregate score, the less the bone pain and/or the better the QoL.
All scales score from 0-4 and a high scale score represents a higher response level.
Minimal important differences for FACT-BP range from 3-7 points.
|
24 weeks
|
|
Quality of Life: FACT-P
Time Frame: Baseline
|
Quality of life (QoL) will be measured using the Functional Assessment of Cancer Therapy-Prostate (FACT-P).
The FACT-P is composed of both multi-item scales and single-item measures.
These include physical, social, emotional, and functional well-being, along with an assessment of prostate-specific health status.
five functional scales, three symptom scales, a global health status / QoL scale, and six single items.
All scales score from 0-4 and a higher score represents higher QoL.
Clinically meaningful changes are 6-10 points.
|
Baseline
|
|
Quality of Life: FACT-P
Time Frame: 12 weeks
|
Quality of life (QoL) will be measured using the Functional Assessment of Cancer Therapy-Prostate (FACT-P).
The FACT-P is composed of both multi-item scales and single-item measures.
These include physical, social, emotional, and functional well-being, along with an assessment of prostate-specific health status.
five functional scales, three symptom scales, a global health status / QoL scale, and six single items.
All scales score from 0-4 and a higher score represents higher QoL.
Clinically meaningful changes are 6-10 points.
|
12 weeks
|
|
Quality of Life: FACT-P
Time Frame: 24 weeks
|
Quality of life (QoL) will be measured using the Functional Assessment of Cancer Therapy-Prostate (FACT-P).
The FACT-P is composed of both multi-item scales and single-item measures.
These include physical, social, emotional, and functional well-being, along with an assessment of prostate-specific health status.
five functional scales, three symptom scales, a global health status / QoL scale, and six single items.
All scales score from 0-4 and a higher score represents higher QoL.
Clinically meaningful changes are 6-10 points.
|
24 weeks
|
|
Balance: NeuroCom
Time Frame: Baseline
|
Balance will be assessed using the NeuroCom Smart Balance Master.
A sensory organization test will be performed.
An overall composite equilibrium score describing a person's overall level of performance during all of the trials in the sensory organization test is calculated, with a value between 0 and 100, with 0 indicating a large sway and loss of balance, and 100 indicating greater postural control.
The composite score is a weighted-average of the following 14 scores: the condition 1 average score, the condition 2 average score, and the three equilibrium scores from each of the trials in conditions 3-6.
|
Baseline
|
|
Balance: NeuroCom
Time Frame: 12 weeks
|
Balance will be assessed using the NeuroCom Smart Balance Master.
A sensory organization test will be performed.
An overall composite equilibrium score describing a person's overall level of performance during all of the trials in the sensory organization test is calculated, with a value between 0 and 100, with 0 indicating a large sway and loss of balance, and 100 indicating greater postural control.
The composite score is a weighted-average of the following 14 scores: the condition 1 average score, the condition 2 average score, and the three equilibrium scores from each of the trials in conditions 3-6.
|
12 weeks
|
|
Balance: NeuroCom
Time Frame: 24 weeks
|
Balance will be assessed using the NeuroCom Smart Balance Master.
A sensory organization test will be performed.
An overall composite equilibrium score describing a person's overall level of performance during all of the trials in the sensory organization test is calculated, with a value between 0 and 100, with 0 indicating a large sway and loss of balance, and 100 indicating greater postural control.
The composite score is a weighted-average of the following 14 scores: the condition 1 average score, the condition 2 average score, and the three equilibrium scores from each of the trials in conditions 3-6.
|
24 weeks
|
|
Arterial Stiffness: SphygmoCor
Time Frame: Baseline
|
Arterial stiffness will be measured using the SphygmoCor Xcel (AtCor Medical).
Arterial stiffness will be assessed using brachial pulse wave analysis (PWA) augmentation index and carotid-femoral pulse wave analysis (PWV).
Greater PWA augmentation index and carotid-femoral PWV time indicates greater arterial stiffness, a surrogate end-point for cardiovascular disease.
|
Baseline
|
|
Arterial Stiffness: SphygmoCor
Time Frame: 12 weeks
|
Arterial stiffness will be measured using the SphygmoCor Xcel (AtCor Medical).
Arterial stiffness will be assessed using brachial pulse wave analysis (PWA) augmentation index and carotid-femoral pulse wave analysis (PWV).
Greater PWA augmentation index and carotid-femoral PWV time indicates greater arterial stiffness, a surrogate end-point for cardiovascular disease.
|
12 weeks
|
|
Arterial Stiffness: SphygmoCor
Time Frame: 24 weeks
|
Arterial stiffness will be measured using the SphygmoCor Xcel (AtCor Medical).
Arterial stiffness will be assessed using brachial pulse wave analysis (PWA) augmentation index and carotid-femoral pulse wave analysis (PWV).
Greater PWA augmentation index and carotid-femoral PWV time indicates greater arterial stiffness, a surrogate end-point for cardiovascular disease.
|
24 weeks
|
Other Outcome Measures
Outcome Measure |
Measure Description |
Time Frame |
|---|---|---|
|
Self-Reported Physical Activity Levels
Time Frame: Baseline
|
Physical activity levels will be determined using the Godin Leisure-Time Exercise questionnaire, a 1-page form that categorizes the number of minimal, moderate, and strenuous bouts of exercise lasting more than 15 minutes.
Higher scores represent higher activity levels.
|
Baseline
|
|
Self-Reported Physical Activity Levels
Time Frame: 12 weeks
|
Physical activity levels will be determined using the Godin Leisure-Time Exercise questionnaire, a 1-page form that categorizes the number of minimal, moderate, and strenuous bouts of exercise lasting more than 15 minutes.
Higher scores represent higher activity levels.
|
12 weeks
|
|
Self-Reported Physical Activity Levels
Time Frame: 24 weeks
|
Physical activity levels will be determined using the Godin Leisure-Time Exercise questionnaire, a 1-page form that categorizes the number of minimal, moderate, and strenuous bouts of exercise lasting more than 15 minutes.
Higher scores represent higher activity levels.
|
24 weeks
|
|
Physical Activity: accelerometry
Time Frame: Baseline
|
Physical Activity will be quantified using accelerometers that will be worn continuously for ~1 wk after each visit to quantify sedentary, low, medium and high levels of activity.
|
Baseline
|
|
Physical Activity: accelerometry
Time Frame: 12 weeks
|
Physical Activity will be quantified using accelerometers that will be worn continuously for ~1 wk after each visit to quantify sedentary, low, medium and high levels of activity.
|
12 weeks
|
|
Physical Activity: accelerometry
Time Frame: 24 weeks
|
Physical Activity will be quantified using accelerometers that will be worn continuously for ~1 wk after each visit to quantify sedentary, low, medium and high levels of activity.
|
24 weeks
|
Collaborators and Investigators
Investigators
- Principal Investigator: Erik D Hanson, PhD, UNC-Chapel Hill
Publications and helpful links
Study record dates
Study Major Dates
Study Start (Actual)
Primary Completion (Actual)
Study Completion (Actual)
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
Additional Relevant MeSH Terms
- Urogenital Diseases
- Genital Diseases
- Genital Neoplasms, Male
- Urogenital Neoplasms
- Neoplasms by Site
- Neoplasms
- Genital Diseases, Male
- Prostatic Diseases
- Male Urogenital Diseases
- Prostatic Neoplasms
- Physiological Effects of Drugs
- Hormones
- Hormones, Hormone Substitutes, and Hormone Antagonists
- Androgens
Other Study ID Numbers
- LCCC2214
Plan for Individual participant data (IPD)
Plan to Share Individual Participant Data (IPD)?
IPD Plan Description
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.
Clinical Trials on Advanced Prostate Carcinoma
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Mayo ClinicRecruitingMultiple Myeloma | Myelodysplastic Syndrome | Advanced Lymphoma | Advanced Malignant Solid Neoplasm | Advanced Pancreatic Carcinoma | Hematopoietic and Lymphoid System Neoplasm | Advanced Lung Carcinoma | Advanced Hepatocellular Carcinoma | Advanced Merkel Cell Carcinoma | Advanced Prostate Carcinoma | Advanced... and other conditionsUnited States
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Veru Inc.TerminatedAdvanced Prostate AdenocarcinomaUnited States
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Mayo ClinicCongressionally Directed Medical Research ProgramsRecruitingBiochemically Recurrent Prostate Carcinoma | Metastatic Prostate Carcinoma | Stage IV Prostate Cancer AJCC v8 | Stage III Prostate Cancer AJCC v8 | Locally Advanced Prostate CarcinomaUnited States
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Royal Marsden NHS Foundation TrustNot yet recruitingAdvanced Prostate CarcinomaUnited Kingdom
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City of Hope Medical CenterNational Cancer Institute (NCI)RecruitingMetastatic Prostate Carcinoma | Stage IV Prostate Cancer AJCC v8 | Prostate Carcinoma | Stage III Prostate Cancer AJCC v8 | Advanced Prostate CarcinomaUnited States
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Universitaire Ziekenhuizen KU LeuvenAZ Sint-Jan AV; General Hospital Groeninge; AZ Sint-Blasius DendermondeRecruitingProstate Cancer | Adenocarcinoma of the Prostate | Locally Advanced Prostate Carcinoma | Locally Advanced Prostate AdenocarcinomaBelgium
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National Cancer Institute (NCI)Active, not recruitingCastration-Resistant Prostate Carcinoma | Metastatic Prostate Carcinoma | Stage IV Prostate Adenocarcinoma AJCC v7 | Advanced Prostate Adenocarcinoma With Neuroendocrine Differentiation | Metastatic Prostate Adenocarcinoma With Neuroendocrine Differentiation | Prostate Adenocarcinoma With Neuroendocrine...United States
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SystImmune Inc.RecruitingNeuroendocrine Cancer | Locally Advanced Merkel Cell Carcinoma | Metastatic Neuroendocrine Prostate Cancer | Small Cell Lung Cancer Metastatic or Locally Advanced | Metastatic Advanced Poorly Differentiated Gastroenteropancreatic Neuroendocrine Carcinoma | Metastatic Advanced Merkel Cell Carcinoma and other conditionsUnited States
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University of WolverhamptonThe Royal Wolverhampton Hospitals NHS TrustRecruitingAdvanced Prostate CarcinomaUnited Kingdom
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Astellas Pharma Europe B.V.CompletedAdvanced Prostate CarcinomaRussian Federation
Clinical Trials on androgen receptor signaling inhibitors
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Case Comprehensive Cancer CenterNational Institutes of Health (NIH)RecruitingProstate Cancer | Malignant Neoplasm of Prostate | Secondary Malignant Neoplasm of ProstateUnited States
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Suzhou Kintor Pharmaceutical Inc,CompletedMetastatic Hormone-Sensitive Prostate Cancer (mHSPC) | Metastatic Castrate Resistant Prostate Cancer (mCRPC)United States
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Suzhou Kintor Pharmaceutical Inc,CompletedMetastatic Castrate Resistant Prostate Cancer (mCRPC)United States
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Tracon Pharmaceuticals Inc.Janssen Pharmaceutica N.V., BelgiumCompletedMetastatic Castrate-resistant Prostate Cancer | Adenocarcinoma, ProstateUnited States
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Weill Medical College of Cornell UniversityMerck Sharp & Dohme LLC; United States Department of DefenseRecruiting
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Bristol-Myers SquibbCompletedProstate CancerUnited States
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Ankara Etlik City HospitalGazi UniversityRecruitingMetastatic Hormone-Sensitive Prostate Cancer (mHSPC)Turkey (Türkiye)
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University of MiamiRecruitingProstate Cancer | Prostate Adenocarcinoma | Hormone Sensitive Prostate CancerUnited States
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Medical University of South CarolinaTerminatedProstate CancerUnited States
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Rutgers, The State University of New JerseyNational Cancer Institute (NCI); Rutgers Cancer Institute of New JerseyCompletedMetastatic Prostate Carcinoma | Metastatic Prostatic Adenocarcinoma | Prostate Carcinoma Metastatic to the BoneUnited States