Coronary arteries are a prominent site for atherosclerosis (AS), a chronic and progressive inflammatory condition characterized by arterial wall structural alterations. AS is a leading cause of fatalities and disabilities connected with cardiovascular diseases (CVD). Computational tools in coronary biomechanics investigate aspects not readily visible through imaging, such as wall shear stress (WSS) patterns and stress within coronary vasculature. While computational fluid dynamics (CFD) simulations have elucidated the role of WSS in the genesis and progression of coronary artery disease (CAD), they are constrained by the rigid-wall assumption, which is physiologically inaccurate. Conversely, fluid-structure interaction (FSI) methods account for vascular distensibility allowing for a more accurate representation of the healthy and/or altered mechanical properties of coronary wall.