Background Patients undergoing resection for gastro-esophageal (GE)-cancer are subjected to high burden of disease and treatment-specific morbidities with potential detrimental impact on survival and quality of life. Exercise training is a promising strategy to improve physical functional before and after tumor resection, but it is not established if this translates into lower risk of peri- and post-operative complications, improved treatment tolerance. Objectives: * To explore the effect a preoperative exercise-training intervention on the risk of treatment failure, defined as the risk of not reaching surgery, in patients diagnosed with operable GE cancer. * To explore the effect of preoperative exercise training on median time to tumor progression (disease free survival), and overall survival * To explore the effect of preoperative exercise training on the risk of treatment complications * To explore the effect of preoperative exercise training on health related quality of life, anxiety and depression,cardiopulmonary fitness, muscle strength, and body composition Subjects and Methods In total, 310 GE-cancer patients will be included in the study and randomly allocated to pre-operative exercise training (n=155) or usual care control (n=155). All participants will undergo 2 study visits; assessed for cardiopulmonary fitness; muscle strength, body composition; blood sample (50 ml); quality of life by questionnaires; physical function; and blood volume profile. Quality of life will be assessed by questionnaires by self-report three times (at 12, 24, and 36 months after diagnosis), and we will collect data from medical records regarding mortality and disease recurrence up to 36 months after diagnosis. Treatment arms: The intervention-group will be prescribed 2-3 weekly supervised exercise training for a total of 12 weeks before surgery during neo-adjuvant chemotherapy. The control group will follow current usual care guidelines. After surgery during adjuvant chemotherapy, both groups will be referred to municipality-based rehabilitation.
Study Type
INTERVENTIONAL
Allocation
RANDOMIZED
Purpose
TREATMENT
Masking
DOUBLE
Enrollment
310
Structured, supervised, high-intensity combined aerobic and resistance exercise. Based on patients' individual capacity (Wattmax and 1RM), a personalized exercise program will be prescribed. Following a 5 minutes warm up, the patients will perform 21 min of aerobic interval training on a stationary bicycle consisting of three 4 minute high intensity intervals (85-95% HRmax) with 3 minutes of active pause between each interval. The resistance training comprises 4 functional exercises by performed using bodyweight, elastic resistance bands or kettlebells followed by resistance exercises in machines for the major muscle groups: chest press, leg press, seated rows, and leg extension with 1 warm-up set followed by 3-4 sets of 8 to 12 repetitions.
Rigshospitalet
Copenhagen, Denmark
Risk of treatment failure
The frequency of patients scheduled to receive neo-adjuvant treatment and tumor resection with curative intend, but fail to reach surgery due to death, disease progression or physical deterioration
Time frame: From date of randomization, until the date of treatment failure is clinically determined before scheduled surgery assessed for up to 20 weeks
Time to disease progression
Time from point of diagnosis to clinical disease relapse
Time frame: Baseline to 3 year follow-up
3 year disease free survival
Frequency of patients alive without clinical disease relapse 3 years after diagnosis
Time frame: Baseline to 3 year follow-up
3 year overall survival
Frequency of patients alive 3 years after diagnosis
Time frame: Baseline to 3 year follow-up
Health Related Quality of Life
Changes from baseline in the Functional Assessment of Cancer Therapy (FACT) questionaire
Time frame: Baseline, scheduled surgery, 1-year follow-up, 2-year follow-up, 3-year follow-up
Anxiety and Depression
Changes from baseline in the HADs questionaire
Time frame: Baseline, scheduled surgery, 1-year follow-up, 2-year follow-up, 3-year follow-up
Pre-operative risk of hospitalization
Frequency of non-scheduled hospitalization during neoadjuvant treatment
Time frame: From date of randomization, until the date of hospitilization before scheduled surgery assessed for up to 20 weeks
Total length of hospital stays
Total number of days hospitalized
Time frame: From date of randomization up to 30 days after surgery
Tumor regression grade
Pathology assessment of tumor response to neoadjuvant treatment
Time frame: From date of randomization (baseline tumor biopsy) to tumor resection (surgery), up to 20 weeks
Risk of neoadjuvant treatment dose-reduction
Incidence of dose-reduction
Time frame: From date of randomization to the date of surgery, up to 20 weeks
Risk of neoadjuvant treatment complications
Incidence of registered toxicities (graded 1-4)
Time frame: From date of randomization to the date of surgery, up to 20 weeks
Risk of post-operative complications
Incidence of registered post-operative complications (Clavien-Dindo grade 2-4)
Time frame: From surgery to 30 days post surgery
Cardiopulmonary fitness
Changes in VO2peak
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Maximum muscle strength
Changes in 1 repetition maximum strength leg-press
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Lean Body Mass
Changes in whole-body lean mass assessed by dual energy x-ray absorptiometry (DXA) scan
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Fat percentage
Changes in whole-body fat percentage assessed by DXA scan
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Appendicular lean mass
Changes in appendicular lean mass assessed by DXA scan
Time frame: Baseline to scheduled surgery
Leg-extensor power
Changes in maximum leg power assessed by Nottingham Power Rig
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Blood Volume
Changes in blood volume assessed by CO2 rebreathing
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
TNFa
Changes in plasma TNFa concentration
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
Interleukin (IL)-6
Changes in plasma IL-6 concentration
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
CRP
Changes in plasma CRP concentration
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
HbA1c
Changes in plasma HbA1c concentration
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
IL-10
Changes in plasma IL-10 concentration
Time frame: From visit 1 (date of randomization, before neoajuvant treatment) until to visit 2 (the week before surgery, after neoadjuvant treatment) up to 20 weeks
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