This study investigates the use of infrared (thermal) imaging of the breast in detecting breast cancer. Thermal imaging measures natural body heat, just like night vision goggles. It uses an “infrared camera,” which is just like a photo camera, but designed to measure infrared heat. Taking thermal (or infrared) images of patients referred for biopsy based on their diagnostic imaging results (e.g., mammograms or ultrasound), may help researchers build an advanced computational thermal model of the female breast with and without cancer. Learning more about thermal imaging of the breast, may eventually help researchers use thermal imaging to detect breast cancer early.
Study sponsor and potential other locations can be found on ClinicalTrials.gov for NCT03990012.
PRIMARY OBJECTIVE:
I. To obtain infrared (IR) images of breast cancer patients’ breasts (i.e., thermograms) under normal ambient conditions PRIOR TO intervention/treatment.
SECONDARY OBJECTIVES:
I. To obtain IR video of breast cancer patients’ malignant breast after cooling local biopsy region (e.g., with ice pack or cold wet wipe).
II. To repeat IR imaging procedure of patients’ breasts (i.e., thermograms) AFTER intervention/treatment (OPTIONAL).
III. To provide University of Texas at Dallas (UTD) researchers with (x,y,z) spatial location of the breast tumor from standard radiological imaging procedures (e.g., mammography, ultrasound, magnetic resonance imaging [MRI], etc.) for patients that ultimately diagnosed with breast cancer.
IV. To obtain 3 dimensional (D) surface contour geometry of breast cancer patients’ breasts via radiological imaging (e.g., MRI) or 3D scanning device (e.g., Polhemus FastSCAN II, Creaform GoSCAN3D or HandySCAN devices).
V. To construct a computational biothermal engineering model of the cancerous breast and use all data provided to validate the model.
OUTLINE:
Patients undergo IR imaging and 3D scan over 30-60 minutes.
Trial PhaseNo phase specified
Trial Typediagnostic
Lead OrganizationUT Southwestern/Simmons Cancer Center-Dallas
Principal InvestigatorJody Hayes