This research is being done to test new MRI methods called Magnetic Resonance Fingerprinting and Q-space Trajectory Imaging in gynecological abnormalities. The purpose of this research study is to evaluate if these new MRI methods can give additional information in characterizing gynecological tumors compared with conventional MRI.
Magnetic resonance imaging (MRI) is a safe and painless test that uses a magnetic field and radio waves to produce detailed images of the body's organs and structures. This research is being done to test new MRI methods called Magnetic Resonance Fingerprinting (MRF) and Q-space Trajectory Imaging (QTI) in gynecological abnormalities. The purpose of this research study is to evaluate if these new MRI methods can give additional information in characterizing gynecological tumors compared with conventional MRI In this research study, the investigators are: * Investigating the use of MR imaging in gynecological tumors on imaging quality and comparison of tumor or fibroid structures and normal anatomy * Investigating whether new MRI methods could help in characterizing the tumor and give information about the expected outcome
Study Type
INTERVENTIONAL
Allocation
NON_RANDOMIZED
Purpose
DIAGNOSTIC
Masking
NONE
Enrollment
1
In MRF, multiple tissue properties are acquired simultaneously.
By using q-space trajectory encoding and a diffusion tensor distribution model, QTI improves the discrimination of diffusivity, shape, and orientation of diffusion microenvironments and therefore carries major potential for imaging the tumor microenvironment.
MRI is routinely used in gynecologic malignancies for its ability to depict the extent of disease at diagnosis providing guidance in staging and treatment planning.
Brigham and Women's Hospital
Boston, Massachusetts, United States
Dana Farber Cancer Institute
Boston, Massachusetts, United States
Number of Patients With Feasible Imaging
Feasibility is determined by both A) having evaluable images in terms of quality according to radiology review and B) having a complete set of tumor metrics \[MRF (T1 and T2 relaxation values) and QTI (total mean kurtosis MKT, microscopic anisotropy MKA, isotropic heterogeneity MK1, fractional anisotropy FA, microscopic fractional anisotropy µFA)\]
Time frame: Day 1
MRF T1 Relaxation Value
T1 relaxation values (unit: milliseconds) will be extracted from regions-of-interest based on anatomical structures using MRF.
Time frame: Day 1
MRF T2 Relaxation Value
T2 relaxation values (unit: milliseconds) will be extracted from regions-of-interest based on anatomical structures in using MRF.
Time frame: Day 1
QTI Total Mean Kurtosis
Total mean kurtosis evaluated by established methods using QTI
Time frame: Day 1
QTI Microscopic Anisotropy MKA
MKa (normalized variance due to anisotropic heterogeneity, unitless) will be extracted from regions-of-interest based on anatomical structures in using advanced diffusion weighted sequences with QTI
Time frame: Day 1
QTI Isotropic Heterogeneity MK1
Isotropic heterogeneity MK1 value evaluated by established methods using QTI
Time frame: Day 1
QTI Fractional Anisotropy FA
Fractional anisotropy FA value evaluated by established methods using QTI
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Time frame: Day 1
QTI Microscopic Fractional Anisotropy µFA
Microscopic fractional anisotropy µFA value evaluated by established methods using QTI
Time frame: Day 1
Median Overall Survival
Time from enrollment to death or last follow-up (censored) estimated using Kaplan-Meier methods
Time frame: Up to 4 years