Clinical Trial Details
— Status: Recruiting
Administrative data
NCT number |
NCT06172270 |
Other study ID # |
2023-0555 |
Secondary ID |
|
Status |
Recruiting |
Phase |
|
First received |
|
Last updated |
|
Start date |
July 1, 2023 |
Est. completion date |
December 1, 2024 |
Study information
Verified date |
November 2023 |
Source |
Second Affiliated Hospital, School of Medicine, Zhejiang University |
Contact |
Yuhan Fu |
Phone |
18857168333 |
Email |
huangpintong[@]126.com |
Is FDA regulated |
No |
Health authority |
|
Study type |
Observational
|
Clinical Trial Summary
The goal of this study is to investigate breast cancer's internal heterogeneity and enhance
diagnostic accuracy. We aim to achieve this by utilizing Contrast-Enhanced Ultrasound (CEUS)
technology, which provides detailed information about tumor perfusion dynamics. Traditional
biopsy methods have limitations due to the invasive nature and complexity of breast cancer
heterogeneity.
Participants in this study will undergo preoperative breast cancer diagnosis using CEUS
technology, which is safe, cost-effective, and convenient. Dynamic CEUS videos will be used
to cluster perfusion characteristics at the pixel level within breast tumors, allowing us to
divide the tumors into distinct subregions based on these clusters. We will then explore the
correlation between these perfusion subregions and the diagnosis of benign or malignant
breast tumors.
Our ultimate aim is to develop diagnostic models that utilize non-invasive imaging data to
enhance breast cancer diagnosis. This approach reduces subjective judgments in the diagnostic
process, potentially improving diagnostic accuracy. It also provides valuable information for
personalized treatment decisions, thus advancing the field of breast cancer treatment.
Description:
Breast cancer is one of the most prevalent cancers among women globally, and its increasing
incidence poses a significant threat to women's health. Despite notable advances in early
diagnosis and treatment due to the continuous progress in medical technology, the high
heterogeneity within breast cancer still results in considerable variability in clinical
manifestations, treatment responses, and disease progression. This diversity presents new
challenges in achieving precise treatment. Thus, a profound exploration and study of the
heterogeneity of breast cancer are crucial for developing more effective diagnostic models,
advancing treatment strategies, and enhancing cure rates.
In current clinical practice, although biopsy is widely used for the diagnosis of benign or
malignant breast tumors, its accuracy and comprehensiveness are somewhat limited due to the
complex internal heterogeneity of breast cancer and the invasive nature of the procedure. In
recent years, preoperative qualitative diagnosis of breast cancer using medical imaging
technology has become a hot topic in research. Compared with other common imaging techniques
such as CT and MRI, ultrasound examination is extensively employed due to its safety,
convenience, and lower cost. Particularly, Contrast-Enhanced Ultrasound (CEUS) technology,
with its superior temporal resolution, can vividly illustrate the details of tumor perfusion
hemodynamics, effectively revealing key features such as enhancement patterns, blood supply,
and vascular invasion of the tumor.
This study is dedicated to using dynamic CEUS videos to cluster perfusion characteristics at
the pixel level within the tumor and divide the tumor into different subregions based on the
clustering results. We will explore the correlation between these perfusion subregions and
the diagnosis of benign or malignant breast tumors, and based on this, develop related
diagnostic models. This non-invasive diagnostic approach aims to maximally mine and utilize
image data, comprehensively capturing the tumor's perfusion characteristics at the pixel
level, and reducing subjective judgments in the diagnostic process. The application of this
method is not only expected to improve the accuracy of breast cancer diagnosis but also to
provide more information support for personalized treatment of patients, thereby promoting
progress in the field of breast cancer treatment.