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Clinical Trials/NCT01852032
NCT01852032
Completed
Not Applicable

Computed Tomography Versus Standard 2D Mammography Versus 3D Tomosynthesis

University of California, Davis1 site in 1 country23 target enrollmentNovember 2010
ConditionsBreast Cancer

Overview

Phase
Not Applicable
Intervention
Not specified
Conditions
Breast Cancer
Sponsor
University of California, Davis
Enrollment
23
Locations
1
Primary Endpoint
Beta of CT Axial View
Status
Completed
Last Updated
8 years ago

Overview

Brief Summary

The purpose of this study is to compare the imaging performance of an investigational breast computed tomography (CT) scanner, built at UC Davis, with that of an FDA-Approved breast tomosynthesis scanner (capable of producing standard 2-D mammography and 3-D tomosynthesis images), built by Hologic, Incorporated, in a group of patients with suspected breast cancer.

Detailed Description

The primary aim of this study is the comparison of Beta values of several different CT and Tomosynthesis views (Beta of CT Sagittal View, Beta of CT Coronal View, Beta of CT Axial View, Beta of Tomosynthesis Craniocaudal View, Beta of Tomosynthesis Medial Lateral Oblique View). Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Registry
clinicaltrials.gov
Start Date
November 2010
End Date
March 4, 2016
Last Updated
8 years ago
Study Type
Interventional
Study Design
Single Group
Sex
Female

Investigators

Responsible Party
Sponsor

Eligibility Criteria

Inclusion Criteria

  • 35 years of age or older
  • While male patients will not be explicitly excluded, it is expected that all patients in this study will be women
  • Diagnostic findings from prior mammography suspicious for, or highly suggestive of, breast malignancy -BIRADS (Breast Imaging Reporting and Data System) categories 4 and 5
  • Scheduled for ultrasound or stereotactic core biopsy
  • Ability to lie still on a table top for up to 10 minutes, longer than the typical breast CT duration.
  • Ability to understand risks, procedures, and benefits involved

Exclusion Criteria

  • Recent breast biopsy
  • History of breast augmentation implant
  • Pregnant or Positive urine pregnancy test (UPT) or currently breast-feeding
  • History of moderate or severe adverse reaction to iodinated contrast injection
  • Recent serum creatinine ≥ 1.5 mg/dL
  • History of Diabetes Mellitus
  • Currently taking Glucophage or Glucovance (Metformin)
  • History of chronic asthma
  • History of allergy to iodine
  • Multiple food and/or drug allergy

Outcomes

Primary Outcomes

Beta of CT Axial View

Time Frame: Day 1

frequency range corresponding to noise power spectrum (NPS) where beta = NPS(f) = af\^-B. beta is calculated as noise corresponding to frequency. The values of the exponent, beta, range from 1.5 to 3.5 Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Beta of CT Coronal View

Time Frame: Day 1

frequency range corresponding to noise power spectrum (NPS) where beta = NPS(f) = af\^-B. beta is calculated as noise corresponding to frequency. The values of the exponent, beta, range from 1.5 to 3.5 Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Beta of Tomosynthesis Craniocaudal View

Time Frame: Day 1

frequency range corresponding to noise power spectrum (NPS) where beta = NPS(f) = af\^-B. beta is calculated as noise corresponding to frequency. The values of the exponent, beta, range from 1.5 to 3.5 Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Beta of CT Sagittal View

Time Frame: Day 1

frequency range corresponding to noise power spectrum (NPS) where beta = NPS(f) = af\^-B. beta is calculated as noise corresponding to frequency. The values of the exponent, beta, range from 1.5 to 3.5 Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Beta of Tomosynthesis Medial Lateral Oblique View

Time Frame: Day 1

frequency range corresponding to noise power spectrum (NPS) where beta = NPS(f) = af\^-B. beta is calculated as noise corresponding to frequency. The values of the exponent, beta, range from 1.5 to 3.5 Lower Beta values correspond to better image quality (less noise, increased cancer detection).

Study Sites (1)

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