This phase I trial studies hyperpolarized carbon 13-based magnetic resonance imaging (MRI) for the detection of radiation-induced cardiotoxicity in patients with receiving thoracic radiation. Heart damage is a known side effect of radiation. Hyperpolarized carbon 13 is prepared in such a way that when metabolized in the body, researchers can see how it is used by the heart. MRI is a method to take pictures or measure metabolism of the inside of the body. Hyperpolarized carbon 13-based MRI may help researchers learn if there are early changes in the heart that can be detected in a person that has had radiation therapy to the left breast or thorax.
Additional locations may be listed on ClinicalTrials.gov for NCT04044872.
Locations matching your search criteria
United States
Texas
Dallas
UT Southwestern/Simmons Cancer Center-DallasStatus: Temporarily closed to accrual
Contact: Prasanna G Alluri
Phone: 214-648-8941
 PRIMARY OBJECTIVE:
I. To determine if radiation-induced cardiac injury causes myocardial mitochondrial dysfunction as measured by increase in [1-13C]lactate/ [13C]bicarbonate ratio and a decrease in [5-13C]glutamate formation in patients receiving radiotherapy to the thorax.
SECONDARY OBJECTIVE:
I. To determine the prognostic value of decreased myocardial mitochondrial pyruvate flux in predicting clinically significant radiation induced cardiotoxicity. 
OUTLINE:
Patients receive hyperpolarized carbon C 13 pyruvate intravenously (IV) or via port and undergo MRI over 1.5 hours at baseline (prior to radiation therapy [RT]) and at >= 1 month after completion of RT.
Lead OrganizationUT Southwestern/Simmons Cancer Center-Dallas
Principal InvestigatorPrasanna G Alluri