Lifestyles Of Health And Sustainability for Breast Cancer Survivors

April 6, 2021 updated by: In Deok Kong, MD, Wonju Severance Christian Hospital

Lifestyle Intervention for Breast Cancer Survivors

The purpose of this study is to examine the effects of exercise program on health-related physical fitness and biomarkers among breast cancer survivors.

Study Overview

Status

Recruiting

Conditions

Detailed Description

Patients and survivors of breast cancer present impaired physical fitness and various complications including acute and chronic pain, severe fatigue, limited range of motion, and bone loss attributable to anticancer treatments. Therefore, regular exercise during and following cancer treatments has been recommended to enhance physical capabilities and relieve side-effect severities, leading to an improved quality of life. Despite the known general benefits to patients with cancer, the effects of exercise on cancer-related biomarkers and their modulators remain unclear.

PRIMARY OBJECTIVES:

I. To determine whether a 12-week exercise intervention will improve components of health-related physical fitness by measuring cardiorespiratory fitness, muscular exercise capacity and flexibility in breast cancer survivors.

II. To determine whether a 12-week exercise intervention will improve risk parameters of metabolic disease by measuring changes in body composition, waist circumference, blood pressure, and circulating levels of glucose, insulin, lipids components and C-reactive protein in breast cancer survivors.

III. To determine whether a 12-week exercise intervention will conduce to changes of cancer-related biomarker by measuring in serum levels of dickkopf-related protein 1 (DKK1), secreted frizzled-related protein 1 (SFRP1), sclerostin, osteoprotegerin, osteopontin, growth differentiation factor 15 (GDF-15), insulin like growth factor 1 (IGF-1), and IGFBP-3 in breast cancer survivors.

IV. To determine whether a 12-week exercise intervention will result in a improvement in inflammatory cytokines and adipokines by measuring in serum levels of interleukin 1 beta (IL-1β), IL-10, IL-11, tumor necrosis factor alpha (TNFα), leptin and adiponectin in breast cancer survivors.

V. To determine whether a 12-week exercise intervention will conduce to changes of myokines by measuring in serum levels of brain-derived neurotrophic factor (BDNF), IL-8, IL-15, fatty acid-binding protein 3 (FABP3), leukemia inhibitory factor (LIF), follistatin, fractalkine, fibroblast growth factor 21 (FGF-21), osteonectin and irisin in breast cancer survivors.

Study Type

Interventional

Enrollment (Anticipated)

60

Phase

  • Not Applicable

Contacts and Locations

This section provides the contact details for those conducting the study, and information on where this study is being conducted.

Study Contact

Study Locations

    • Gangwon-do
      • Wonju, Gangwon-do, Korea, Republic of
        • Recruiting
        • Center for Exercise medicine; Yonsei University
        • Contact:
        • Principal Investigator:
          • Jae Seung Chang, Ph.D

Participation Criteria

Researchers look for people who fit a certain description, called eligibility criteria. Some examples of these criteria are a person's general health condition or prior treatments.

Eligibility Criteria

Ages Eligible for Study

18 years to 64 years (Adult)

Accepts Healthy Volunteers

No

Genders Eligible for Study

Female

Description

Inclusion Criteria:

  • Have diagnosed as a stage of I-III breast cancer
  • Have undergone a lumpectomy or mastectomy
  • Have completed neoadjuvant/adjuvant chemotherapy and able to initiate Exercise program
  • Nonsmokers (i.e., not smoking during previous 12 months)
  • Able to provide physician clearance to participate in exercise program for 12 weeks

Exclusion Criteria:

  • History of chronic disease including diabetes, uncontrolled hypertension or thyroid disease
  • Weight reduction >= 10% within past 6 months
  • Metastatic disease
  • Participate in more than 60 minutes of exercise per week in the past 6 months
  • Cardiovascular, respiratory or musculoskeletal disease or joint problems that preclude moderate physical activity

Study Plan

This section provides details of the study plan, including how the study is designed and what the study is measuring.

How is the study designed?

Design Details

  • Primary Purpose: Supportive Care
  • Allocation: Randomized
  • Interventional Model: Parallel Assignment
  • Masking: Triple

Arms and Interventions

Participant Group / Arm
Intervention / Treatment
Experimental: Exercise in breast cancer survivors
Combined aerobic and strength exercise training for 12 weeks under supervision
Subjects participate in supervised exercise sessions for 60 minutes thrice weekly and are encouraged to participate in a home-based exercise session over 30 minutes once weekly for 12 weeks.
No Intervention: No exercise in breast cancer survivors
Lifestyle counseling and standard of care follow up for 12 weeks
Sham Comparator: Exercise in healthy subjects
Age-matched healthy subjects. Combined aerobic and strength exercise training for 12 weeks under supervision
Subjects participate in supervised exercise sessions for 60 minutes thrice weekly and are encouraged to participate in a home-based exercise session over 30 minutes once weekly for 12 weeks.

What is the study measuring?

Primary Outcome Measures

Outcome Measure
Measure Description
Time Frame
Changes of health-related physical fitness components (1).
Time Frame: Changes from baseline aerobic capacity at 12 weeks
Aerobic capacity is assessed using multi-stage 20 meters shuttle run test (the maximum number of repetitions).
Changes from baseline aerobic capacity at 12 weeks
Changes of health-related physical fitness components (2).
Time Frame: Changes from baseline muscular endurance at 12 weeks
Muscular endurance is assessed using sit-up test for 30 seconds (the maximum number of repetitions).
Changes from baseline muscular endurance at 12 weeks
Changes of health-related physical fitness components (3).
Time Frame: Changes from baseline muscular strength at 12 weeks
Muscular strength is assessed by the maximum voluntary strength of handgrip (kg).
Changes from baseline muscular strength at 12 weeks
Changes of health-related physical fitness components (4).
Time Frame: Changes from baseline muscular power at 12 weeks
Muscular power is assessed using standing long jump test (the maximum horizontal distance of two trials, cm).
Changes from baseline muscular power at 12 weeks
Changes of health-related physical fitness components (5).
Time Frame: Changes from baseline agility at 12 weeks
Agility is assessed using 10 meters agility shuttle run test (the time taken to complete a 10 meters course is recorded, seconds).
Changes from baseline agility at 12 weeks
Changes of health-related physical fitness components (6).
Time Frame: Changes from baseline flexibility at 12 weeks
Flexibility is assessed using sit and reach test (the greater distance of two trials, cm)
Changes from baseline flexibility at 12 weeks
Changes of anthropometric parameters (1).
Time Frame: Changes from baseline waist circumference at 12 weeks
Waist circumference is measured at the midpoint between the lower rib margin and the iliac crest (expressed in cm).
Changes from baseline waist circumference at 12 weeks
Changes of anthropometric parameters (2).
Time Frame: Changes from baseline BMI at 12 weeks
BMI calculated as body weight / height (kg per square meters).
Changes from baseline BMI at 12 weeks
Changes of body composition parameters (1).
Time Frame: Changes from baseline body fat mass at 12 weeks
Body fat mass is measured by a bio-impedance analyzer (expressed as kg).
Changes from baseline body fat mass at 12 weeks
Changes of body composition parameters (2).
Time Frame: Changes from baseline lean body mass at 12 weeks
Lean body mass is measured by a bio-impedance analyzer (expressed as kg).
Changes from baseline lean body mass at 12 weeks
Changes of body composition parameters (3).
Time Frame: Changes from baseline percentage body fat at 12 weeks
Percentage body fat is calculated as body fat mass (kg) divided by weight (kg).
Changes from baseline percentage body fat at 12 weeks
Changes of serum levels of Wnt signaling-related molecules (1).
Time Frame: Changes from baseline serum levels of DKK1 at 12 weeks
The serum concentration of DKK1 is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 15.6 pg/ml; Standard curve range, 31.2 - 2,000 pg/ml, R&D systems).
Changes from baseline serum levels of DKK1 at 12 weeks
Changes of serum levels of Wnt signaling-related molecules (2).
Time Frame: Changes from baseline serum levels of Sclerostin at 12 weeks
The serum concentration of sclerostin is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 6.96 pg/ml; Standard curve range, 7.49 - 1,820 pg/ml, R&D systems).
Changes from baseline serum levels of Sclerostin at 12 weeks
Changes of serum levels of Wnt signaling-related molecules (3).
Time Frame: Changes from baseline serum levels of SFRP1 at 12 weeks
The serum concentration of SFRP1 is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 53 pg/ml; Standard curve range, 156 - 10,000 pg/ml, USCN Life Science Inc.).
Changes from baseline serum levels of SFRP1 at 12 weeks
Changes of serum levels of Wnt signaling-related molecules (4).
Time Frame: Changes from baseline serum levels of β-catenin at 12 weeks
The serum concentration of β-catenin is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 3.9 pg/ml; Standard curve range, 15.6 - 1000 pg/ml, Cusabio Biotech).
Changes from baseline serum levels of β-catenin at 12 weeks
Changes of serum levels of Wnt signaling-related molecules (5).
Time Frame: Changes from baseline serum levels of WISP-1 at 12 weeks
The serum concentration of WISP-1 is measured by commercial chemiluminescent immunoassay kits (Minimal detectable density, 0.97 pg/ml; Standard curve range, 2.74 - 2,000 pg/ml, USCN Life Science Inc.).
Changes from baseline serum levels of WISP-1 at 12 weeks

Secondary Outcome Measures

Outcome Measure
Measure Description
Time Frame
Changes of serum levels of cancer-related molecules (1).
Time Frame: Changes from baseline serum levels of osteoprotegerin at 12 weeks
The serum concentration of osteoprotegerin is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 3.62 pg/ml; Standard curve range, 81.4 - 19,770 pg/ml, R&D systems).
Changes from baseline serum levels of osteoprotegerin at 12 weeks
Changes of serum levels of cancer-related molecules (2).
Time Frame: Changes from baseline serum levels of osteopontin at 12 weeks
The serum concentration of osteopontin is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 413 pg/ml; Standard curve range, 3.4 - 826.9 ng/ml, R&D systems).
Changes from baseline serum levels of osteopontin at 12 weeks
Changes of serum levels of cancer-related molecules (3).
Time Frame: Changes from baseline serum levels of GDF-15 at 12 weeks
The serum concentration of GDF-15 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 1.2 pg/ml; Standard curve range, 34 - 8,270 pg/ml, R&D systems).
Changes from baseline serum levels of GDF-15 at 12 weeks
Changes of serum levels of adipokines (1).
Time Frame: Changes from baseline serum levels of adiponectin at 12 weeks
The serum concentration of adiponectin is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 0.891 ng/ml; Standard curve range, 3.9 - 250 ng/ml, R&D systems).
Changes from baseline serum levels of adiponectin at 12 weeks
Changes of serum levels of adipokines (2).
Time Frame: Changes from baseline serum levels of leptin at 12 weeks
The serum concentration of leptin is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 7.8 pg/ml; Standard curve range, 15.6 - 1,000 ng/ml, R&D systems).
Changes from baseline serum levels of leptin at 12 weeks
Changes of serum levels of myokines (1).
Time Frame: Changes from baseline serum levels of BDNF at 12 weeks
The serum concentration of BDNF is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 0.32 pg/ml; Standard curve range, 10.9 - 2,650 pg/ml, R&D systems).
Changes from baseline serum levels of BDNF at 12 weeks
Changes of serum levels of myokines (2).
Time Frame: Changes from baseline serum levels of IL-8 at 12 weeks
The serum concentration of IL-8 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 1.8 pg/ml; Standard curve range, 8.19 - 1,990 pg/ml, R&D systems).
Changes from baseline serum levels of IL-8 at 12 weeks
Changes of serum levels of myokines (3).
Time Frame: Changes from baseline serum levels of IL-15 at 12 weeks
The serum concentration of IL-15 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 1.01 pg/ml; Standard curve range, 7.7 - 18,700 pg/ml, R&D systems).
Changes from baseline serum levels of IL-15 at 12 weeks
Changes of serum levels of myokines (4).
Time Frame: Changes from baseline serum levels of FABP3 at 12 weeks
The serum concentration of FABP3 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 472 pg/ml; Standard curve range, 1.3 - 312.2 ng/ml, R&D systems).
Changes from baseline serum levels of FABP3 at 12 weeks
Changes of serum levels of myokines (5).
Time Frame: Changes from baseline serum levels of LIF at 12 weeks
The serum concentration of LIF is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 9.31 pg/ml; Standard curve range, 68.1 - 16,550 pg/ml, R&D systems).
Changes from baseline serum levels of LIF at 12 weeks
Changes of serum levels of myokines (6).
Time Frame: Changes from baseline serum levels of follistatin at 12 weeks
The serum concentration of follistatin is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 133 pg/ml; Standard curve range, 2.6 - 650 ng/ml, R&D systems).
Changes from baseline serum levels of follistatin at 12 weeks
Changes of serum levels of myokines (7).
Time Frame: Changes from baseline serum levels of fractalkine at 12 weeks
The serum concentration of fractalkine is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 64.8 pg/ml; Standard curve range, 1.3 - 325.8 ng/ml, R&D systems).
Changes from baseline serum levels of fractalkine at 12 weeks
Changes of serum levels of myokines (8).
Time Frame: Changes from baseline serum levels of FGF-21 at 12 weeks
The serum concentration of FGF-21 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 27 pg/ml; Standard curve range, 623 - 151,330 pg/ml, R&D systems).
Changes from baseline serum levels of FGF-21 at 12 weeks
Changes of serum levels of myokines (9).
Time Frame: Changes from baseline serum levels of SPARC (osteonectin) at 12 weeks
The serum concentration of SPARC (osteonectin) is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 97.9 pg/ml; Standard curve range, 3.4 - 829.9 ng/ml, R&D systems).
Changes from baseline serum levels of SPARC (osteonectin) at 12 weeks
Changes of serum levels of myokines (10).
Time Frame: Changes from baseline serum levels of irisin at 12 weeks
The serum concentration of irisin is measured by commercial enzyme-linked immunosorbent assay kits (Minimal detectable density, 1.29 ng/ml; Standard curve range, 0.1 - 1,000 ng/ml, Phoenix Pharmaceuticals).
Changes from baseline serum levels of irisin at 12 weeks
Changes of serum levels of inflammatory-related cytokines (1)
Time Frame: Changes from baseline serum levels of IL-1 beta at 12 weeks
The serum concentration of IL-1 beta is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 0.8 pg/ml; Standard curve range, 17.8 - 4,320 pg/ml, R&D systems).
Changes from baseline serum levels of IL-1 beta at 12 weeks
Changes of serum levels of inflammatory-related cytokines (2)
Time Frame: Changes from baseline serum levels of IL-10 at 12 weeks
The serum concentration of IL-10 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 1.6 pg/ml; Standard curve range, 13.7 - 3,340 pg/ml, R&D systems).
Changes from baseline serum levels of IL-10 at 12 weeks
Changes of serum levels of inflammatory-related cytokines (3)
Time Frame: Changes from baseline serum levels of IL-11 at 12 weeks
The serum concentration of IL-11 is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 24.7 pg/ml; Standard curve range, 0.5 - 125.4 ng/ml, R&D systems).
Changes from baseline serum levels of IL-11 at 12 weeks
Changes of serum levels of inflammatory-related cytokines (4)
Time Frame: Changes from baseline serum levels of TNF-alpha at 12 weeks
The serum concentration of TNF-alpha is measured using commercial luminex multiplexed cytokine assay panels (Minimal detectable density, 1.2 pg/ml; Standard curve range, 14 - 3,410 pg/ml, R&D systems).
Changes from baseline serum levels of TNF-alpha at 12 weeks
Changes of bone mineral density
Time Frame: Changes from baseline bone mineral density at 12 weeks
Bone mineral density is expressed as T-score, which is measured by a compact ultrasonometer at calcaneus (Achilles Express, GE LUNAR Corp., Madison, WI)
Changes from baseline bone mineral density at 12 weeks

Collaborators and Investigators

This is where you will find people and organizations involved with this study.

Investigators

  • Study Chair: In Deok Kong, Professor, Yonsei University

Publications and helpful links

The person responsible for entering information about the study voluntarily provides these publications. These may be about anything related to the study.

Study record dates

These dates track the progress of study record and summary results submissions to ClinicalTrials.gov. Study records and reported results are reviewed by the National Library of Medicine (NLM) to make sure they meet specific quality control standards before being posted on the public website.

Study Major Dates

Study Start

May 1, 2014

Primary Completion (Anticipated)

March 1, 2023

Study Completion (Anticipated)

December 1, 2023

Study Registration Dates

First Submitted

August 21, 2016

First Submitted That Met QC Criteria

September 4, 2016

First Posted (Estimate)

September 9, 2016

Study Record Updates

Last Update Posted (Actual)

April 8, 2021

Last Update Submitted That Met QC Criteria

April 6, 2021

Last Verified

April 1, 2021

More Information

Terms related to this study

Other Study ID Numbers

  • LOHAS-BCS

Plan for Individual participant data (IPD)

Plan to Share Individual Participant Data (IPD)?

NO

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 Breast Cancer

Clinical Trials on Combined aerobic and strength exercise training

3
Subscribe