Developing an evacuation evaluation model for offshore oil and gas platforms using BIM and agent-based model
Authored by Vincent J L Gan, Jack C P Cheng, Yi Tan, Yongze Song, Zhongya Mei, Xiangyu Wang
Date Published: 2018
DOI: 10.1016/j.autcon.2018.02.011
Sponsors:
Australian Research Council (ARC)
Platforms:
No platforms listed
Model Documentation:
Other Narrative
Flow charts
Model Code URLs:
Model code not found
Abstract
Accidents on offshore oil and gas platforms (OOGPs) usually cause
serious fatalities and financial losses considering the demanding
environment where such platforms are located and the complicated
topsides structure that the platforms have. Conducting evacuation
planning on OOGPs is challenging. Computational tools are considered as
a good way to plan evacuation by emergency simulation. However, the
complex structure of OOGPs and various evacuation behaviors can weaken
the advantages of computational simulation. Therefore, this study
develops a simulation model for OOGPs to evaluate different evacuation
plans to improve evacuation performance by integrating building
information modeling (BIM) technology and agent-based model (ABM). The
developed model consists of four parts: evacuation model input,
simulation environment modeling, agent definition, and simulation and
comparison. Necessary platform information is extracted from BIM and
then used to model the simulation environment by integrating matrix
model and network model. In addition to essential attributes,
environment sensing and dynamic escape path planning functions are
developed and assigned to agents in order to improve simulation
performance. Total evacuation time for all agents on an offshore
platform is used to evaluate the evacuation performance of each
simulation. An example OOGP BIM topsides with different emergency
scenarios is used to illustrate the developed evacuation evaluation
model. The results show that the developed model can accurately simulate
evacuation and improve evacuation performance on OOGPs. The developed
model is also applicable to other industries such as the architecture,
engineering, and construction industry, where there is an increasing
demand for evacuation planning and simulation.
Tags
Agent-based model
Simulation
behavior
Management
Emergency evacuation
Framework
Construction
Bim
Evacuation evaluation
Offshore
platforms
Deep-water horizon
Fire emergency