Date of Thesis
2017
Description
When designing for the serviceability of stadium structures, practicing engineers must choose from a variety of methods to model and analyze the effects of crowd-induced dynamic excitation. In one of these models, a dynamic force is applied to the structural model to simulate the effects of the crowd-induced force. In the other, an additional dynamic system is added to the structural model to simulate the properties of human. This study assesses the accuracy of both modeling methods to determine which model more accurately predicts a structure's response to crowd-induced dynamic excitation. To do this, a variety of excitations are imparted on a cantilevered structure, and the same excitations are applied to a computer model of the same structure. The response of the structure is evaluated according to both analysis methods to determine which method more accurately predicts the physical structure's response. These tests indicate that the model that simulates the properties of a human more accurately predicts the RMS accelerations for the majority of the excitation types, and more closely matches the frequency responses for the majority of the excitation types as well. From this, it is concluded that this model is the more accurate method.
Keywords
human-structure interaction, structural dynamics, civil engineering, structural engineering, stadium structures
Access Type
Honors Thesis (Bucknell Access Only)
Degree Type
Bachelor of Science in Civil Engineering
Major
Civil Engineering
First Advisor
Kelly A. Salyards
Recommended Citation
Todd, Eric Charles, "Human-Induced Dynamic Excitation: Model Evaluation and Application" (2017). Honors Theses. 389.
https://digitalcommons.bucknell.edu/honors_theses/389