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Aortic Valve Closed aortic valve during diastole True FISP. Open aortic valve during systole True FISP. Short axis view of the aortic valve True FISP sequence, notice artifact over valve. Short axis view of the aortic valve GRE sequence same slice location. GRE vs True FISP: Sequence Selection and Artifact Considerations Choosing the appropriate imaging sequence is critical when evaluating the aortic valve. The comparison between Gradient Recalled Echo (GRE) and True Fast Ima

Phase Contrast and VENC Imaging in Cardiac MRI Cardiac MRI is a powerful diagnostic tool that provides detailed images of the heart's structure and function. For MRI technologists, mastering phase contrast imaging is critical to obtaining high-quality images that accurately reflect cardiovascular hemodynamics. Phase contrast imaging encompasses both through-plane and in-plane techniques, each serving distinct clinical purposes in the comprehensive assessment of blood flow pat

Overview: The left ventricular four-chamber (LV 4ch) view is a cornerstone in cardiac MRI, enabling simultaneous visualization of all chambers—left ventricle (LV), left atrium (LA), right ventricle (RV), and right atrium (RA). Its use is pivotal for functional assessment, disease evaluation, and complex congenital workups. 4 Chamber Planning Left ventricle 4ch view shows the (RV) right ventricle, (RA) right atrium, (LV) left ventricle, (LA) left atrium, and (MV) mitral valve,

Cardiac MRI has become a vital tool for diagnosing and managing heart diseases. Among the various imaging techniques, MOLLI (Modified Look-Locker Inversion recovery) mapping stands out for its ability to provide detailed tissue characterization. But why do cardiac MRI technologists run MOLLI maps, and when might these maps not be needed? This post explores the purpose of MOLLI maps, their clinical value, and situations where skipping them makes sense. Cardiac MRI scanner show

LV 2-Chamber View in Cardiac MRI: Planning & Protocols 2 Chamber Planning Master left ventricle two-chamber (2ch) view imaging in cardiac MRI. Learn essential planning techniques for anterior and inferior wall assessment and complete ventricular function evaluation. LAA: Left atrial appendage, LA: Left atrium, MV: Mitral valve, AS: Anteroseptal wall, PM: Papillary muscle, IL: Inferolateral wall, LV: Left ventricle, Line bisects mitral valve and apex on 4ch view. Line is paral

Cardiac MRI of the Left Ventricle This section outlines a structured approach for planning cardiac MRI specifically for assessing the left ventricle. Key components include: Critical Views Four essential views are highlighted for thorough evaluation: Two-Chamber View: Assesses anterior and inferior walls. Four-Chamber View: Evaluates overall function and structure of the left and right ventricles and atria. Three-Chamber View: Focuses on the left ventricular outflow tract

This comprehensive guide covers essential cardiac MRI techniques for imaging the thoracic aorta, including planning strategies, MRA protocols, specialized views, and advanced 4D flow imaging. These techniques are critical for diagnosing and monitoring aortic pathologies such as aneurysms, dissections, and congenital abnormalities. MRI Planning of the Thoracic Aorta Proper planning is the foundation of high-quality thoracic aorta imaging. Strategic selection of imaging views,

Cardiac MRI has become an essential tool in diagnosing and managing heart diseases. Its ability to provide detailed images of the heart’s structure and function makes it invaluable for detecting a wide range of cardiac pathologies. However, understanding and interpreting cardiac MRI requires access to reliable resources that explain the pathology clearly and comprehensively. This post guides you through the key resources that help medical professionals, students, and research

Cardiac MRI Scan Protocol Optimization: Expert Tips Cardiac MRI machine setup showing patient table and coil positioning Understand the Clinical Question Before setting up the scan, clarify the clinical question. Different cardiac conditions require different imaging sequences and parameters. For example: Ischemic heart disease : Focus on myocardial perfusion and viability using stress and delayed enhancement imaging. Cardiomyopathies : Use tissue characterization sequences l