This research project is testing a new treatment planning method for patients with lung cancer who will be treated with radiation therapy. This new method is called Computed Tomography (CT) ventilation imaging. It aims to help protect the healthiest parts of patient's lungs from being injured by the radiation therapy. The investigators will determine whether healthy lung sparing can improve the quality of life in these patients.
The planning and delivery of Radiation Therapy (RT) is a balance between delivering a curative dose to the tumour while sparing healthy organs, such as the lungs, from collateral damage such as pneumonitis. To minimise radiation-induced lung injury, our team has invented and pioneered ventilation imaging based on Computed Tomography (CT). This Australian-invented medical device, now an international field of research, uses CT scans routinely acquired for planning RT to compute a CT ventilation map showing high functioning and low functioning lung regions. This image is used as the basis for directing radiation away from the healthy, high functioning regions towards the low functioning regions, thereby aiming to reduce toxicity and improve the patient's quality of life.
Study Type
INTERVENTIONAL
Allocation
RANDOMIZED
Purpose
OTHER
Masking
QUADRUPLE
Enrollment
165
CT Ventilation imaging will be used to create a healthy lung sparing treatment plan for patients who will receive radiation therapy treatment for their lung cancer.
Liverpool Hospital
Liverpool, New South Wales, Australia
Patients receiving healthy lung sparing treatment (interventional arm) have better quality of life than patients receiving standard treatment (control arm).
Patients in the interventional healthy lung sparing arm will maintain their 3-month quality of life (measured via the Functional Assessment of Cancer Therapy - Lung (FACT-L) questionnaire) more than patients receiving standard care by a clinically meaningful difference.
Time frame: 3 months
Interventional arm patients will have reduced treatment lung side-effects.
Toxicities will be collected at each patient visit.
Time frame: 2 years
Interventional arm patients will have better lung function, as determined by the difference between pre and post treatment Forced Expiratory Volume (FEV1) scores, as healthy lung is spared.
Lung function tests (FEV-1) will be acquired at routine time points within the trial, including pre and post treatment.
Time frame: 2 years
In the interventional arm, a higher proportion of patients will receive immunotherapy
Adjuvant therapy will be described for all patients as part of routine follow up.
Time frame: 2 years
In the interventional arm, a higher proportion of patients will complete immunotherapy
Adjuvant therapy will be described for all patients as part of routine follow up.
Time frame: 2 years
Cost effectiveness will be demonstrated as measured via a health economics assessment
To be determined
Time frame: 2 years
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