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Highlighting innovations in cardiac MRI, CT, and ultrasound for early detection and treatment of heart and vascular diseases.
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Session 5: Cardiovascular Imaging Advances
Session 5: Cardiovascular Imaging Advances
Call for Abstracts / Research Papers: Presentation | Case Report | Research Work
Sub-Tracks: Cardiovascular Imaging, Cardiac CT, Cardiac MRI, Echocardiography, PET-CT, Vascular Imaging, Coronary Artery Imaging, Machine Learning in Cardiology, Deep Learning in Imaging, Artificial Intelligence in Cardiovascular Diagnosis, Quantitative Image Analysis, Functional and Structural Cardiac Assessment, Patient-Specific Cardiovascular Diagnostics, Imaging Biomarkers, Predictive Algorithms, Tele-Radiology, Clinical Cardiology Imaging
Use of Advanced Computational Techniques in Cardiovascular Imaging
Advanced computational techniques, including machine learning (ML) and deep learning (DL), are transforming cardiovascular imaging. AI-powered tools enable precise image segmentation, automated quantification, and accurate detection of structural and functional cardiac abnormalities. When combined with patient clinical data, these computational outputs can guide personalized treatment and improve patient outcomes.
Despite the promise of computational cardiovascular imaging, challenges remain for its full clinical adoption, including standardization, validation, and integration into healthcare workflows.
Key Benefits of Computational Cardiovascular Imaging:
Enhanced Accuracy – AI tools improve the detection of cardiovascular abnormalities and support precise diagnosis.
Efficiency – Automation of repetitive imaging tasks, such as vessel segmentation or volumetric analysis, saves time for radiologists.
Standardization – Reduces variability in interpretation and ensures consistent diagnostic quality.
Access to Expertise – Tele-radiology allows remote consultation and expert review, improving patient care globally.
Research Advancement – Facilitates large-scale data analysis for biomarker discovery and understanding of cardiovascular disease mechanisms.
Personalized Medicine – Integrates imaging with clinical and genomic data to tailor patient-specific treatment plans.
Cost Reduction – Streamlines imaging workflows and resource utilization, reducing operational expenses.
Education & Training – Digital imaging platforms enable interactive tutorials, virtual cases, and continuous learning for trainees and practicing radiologists.
Scalability – Handles growing volumes of imaging data to meet the increasing demand for cardiovascular diagnostics.
Quality Improvement – Provides feedback and performance metrics to enhance radiologist skills and maintain high diagnostic standards.
Who Should Attend?
Radiologists, Cardiologists, Cardiac Imaging Specialists, Clinical Scientists, Radiology Residents, PhD Students & Post-Doctoral Researchers, Biomedical Scientists, Physicians, Medical Practitioners, Medical Education Professionals, Imaging Technologists, and all healthcare professionals involved in cardiovascular imaging and diagnostics.