Seismic design and qualification of advanced reactors will rely heavily on the use of verified
and validated numerical models capable of capturing the interaction of the vessel, its …

Seismic design, qualification, and risk assessment of nuclear safety-related vessels filled
with liquid will have to consider the interaction between the vessel (tank), the contained …

Numerical models capable of generating robust estimates of isolation‐system and fluid‐
structure responses for multidirectional, high‐intensity shaking will be required for analysis …

Fluid-structure interaction (FSI) of earthquake shaking is a design consideration in the civil,
nuclear, chemical, and mechanical industries. Preliminary sizing of structures and …

The seismic design of an advanced nuclear reactor must consider the interaction of vessel
internal components with the surrounding coolant: fluid–structure interaction (FSI). Available …

Earthquake shaking of a liquid‐filled advanced reactor induces fluid‐structure interaction
(FSI) between the reactor vessel (tank), its internal components, and the contained liquid …

MCEER was originally established by the National Science Foundation in 1986 at the
University at Buffalo, The State University of New York, as the first National Center for …

The hydrodynamic response of liquid-filled storage tanks subjected to translational
earthquake shaking has been the focus of studies for more than 75 years. In service, tanks …

Analytical and Numerical Studies of Seismic Fluid-Structure Interaction in Liquid-Filled Vessels
Page 1 MCEER: Earthquake Engineering to Extreme Events by Ching-Ching Yu and Andrew S …

Accurate prediction of the dynamic seismic response of reactor vessel internals (RVIs)
submerged in fluid will be critical to the design, qualification and risk assessment of …