A Novel Imaging Based Quantitative Model-aided Detection of Portal Hypertension in Patients With Cirrhosis (CHESS2104)
- Conditions
- Portal Hypertension
- Interventions
- Diagnostic Test: CTDiagnostic Test: MRIDiagnostic Test: HVPGDiagnostic Test: Ultrasound
- Registration Number
- NCT05068492
- Lead Sponsor
- Hepatopancreatobiliary Surgery Institute of Gansu Province
- Brief Summary
How to construct a novel, non-invasive, accurate, and convenient method to achieve prediction of hepatic venous pressure gradient (HVPG) is an important general problem in the management of portal hypertension in cirrhosis. We plan to investigate the ability of AI analysis of Ultrasound, computed tomography (CT) or magnetic resonance (MR) to establish a risk stratification system and perform tailored management for portal hypertension in cirrhosis.
- Detailed Description
China suffers the heaviest burden of liver disease in the world. The number of chronic liver disease is more than 400 million. Either viral-related hepatitis, alcoholic hepatitis, or metabolic-related fatty hepatitis, etc. may progress to cirrhosis, which greatly threatens public health. Portal hypertension is a critical risk factor that correlates with clinical prognosis of patients with cirrhosis. According to the Consensus on clinical application of hepatic venous pressure gradient in China (2018), hepatic venous pressure gradient (HVPG) greater than 10,12,16,20 mmHg correspondingly predicts different outcomes of patients with cirrhosis portal hypertension. It is of great significance to establish a risk stratification system and perform tailored management for portal hypertension in cirrhosis. As a universal gold standard for diagnosing and monitoring portal hypertension, HVPG remains limitation for clinical application due to its invasiveness. How to construct a novel, non-invasive, accurate, and convenient method to achieve prediction of HVPG is an important general problem in the management of portal hypertension in cirrhosis.
The development of radiomics technique provides an approach to solve abovementioned clinical issues. Based on artificial intelligence algorithms, radiomics harnesses mineable, high-resolution, and quantitative features from encrypted medical images, along with clinical or genetic data to produce evidence-based decision support system, to achieve the clinical targets including diagnosis, treatment effect evaluation, and prognosis prediction. In this project, aiming at development of a risk stratification system for hypertension management in cirrhosis, we will construct a standard-of-care database and utilize radiomics tool to construct the decision making system. We will take responsibility for achievement of organ and vessel segmentation, radiomic feature selection, and signature construction for prediction of hypertension classification, and accomplish the development of prototype system which would integrate four modules including database management, HVPG risk stratification application module, predicted outcome presentation module, and prognostic information curation module. This project will focus on two aspects which are correspondingly machine learning algorithms optimization and prototype system development, so as to promote the precision medicine in liver disease.
Recruitment & Eligibility
- Status
- NOT_YET_RECRUITING
- Sex
- All
- Target Recruitment
- 2000
- age > 18 years old;
- confirmed cirrhosis (laboratory, imaging and clinical symptoms);
- with ultrasound/CT/MRI within 1 month prior to HVPG measurement;
- written informed consent.
- any previous liver or spleen surgery;
- liver cancer; chronic acute liver failure;
- acute portal hypertension;
- unreliable HVPG or ultrasound/CT/MRI results due to technical reasons.
- with liver interventional therapy between HVPG and ultrasound/CT/MRI
Study & Design
- Study Type
- OBSERVATIONAL
- Study Design
- Not specified
- Arm && Interventions
Group Intervention Description Test cohort Ultrasound Test cohort was set to test the novel non-invasive model for virtual HVPG in different environments Training cohort CT Training cohort was set to develop the novel non-invasive model for virtual HVPG Training cohort Ultrasound Training cohort was set to develop the novel non-invasive model for virtual HVPG Validation cohort CT Validation cohort was set to validate the novel non-invasive model for virtual HVPG in different people in same environments Validation cohort MRI Validation cohort was set to validate the novel non-invasive model for virtual HVPG in different people in same environments Validation cohort HVPG Validation cohort was set to validate the novel non-invasive model for virtual HVPG in different people in same environments Test cohort HVPG Test cohort was set to test the novel non-invasive model for virtual HVPG in different environments Validation cohort Ultrasound Validation cohort was set to validate the novel non-invasive model for virtual HVPG in different people in same environments Training cohort MRI Training cohort was set to develop the novel non-invasive model for virtual HVPG Training cohort HVPG Training cohort was set to develop the novel non-invasive model for virtual HVPG Test cohort CT Test cohort was set to test the novel non-invasive model for virtual HVPG in different environments Test cohort MRI Test cohort was set to test the novel non-invasive model for virtual HVPG in different environments
- Primary Outcome Measures
Name Time Method Diagnostic value 24 months Accuracy of the novel model for virtual HVPG
- Secondary Outcome Measures
Name Time Method
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