Computational fluid dynamics (CFD) has grown as a tool to help understand the initiation, growth, and rupture of cerebral aneurysms. Studies continue to be conducted to correlate hemodynamic properties to what causes cerebral aneurysm initiation and rupture, but few deal specifically with aneurysm growth and most of these studies only use one time instance within the aneurysm growth history. This current study looks at four aneurysms with different sizes and locations, once at the initial detection of aneurysm and then once more at follow-up after several years of growth, in order to analyze hemodynamic and morphological changes. Results showed that although each aneurysm has its own growth story, major geometry bulk growth occurred in areas of low WSS, higher pressure, and in areas adjacent to flow deflected after impinging the wall. Wall shape remodeling near neck impingement regions occurred in areas of high total pressure, WSS, and OSI and high gradients of these variables. Geometries varied in volume growth per year from 61% to 170% with an average decrease in wall shear stress (WSS) of 9% and increase in kinetic energy (KE) of 114%. Aneurysm growth results were similar to published results with growth occurring in low WSS areas and neck impingement remodeling occurring near high WSS and high WSS gradients areas.