Vidal's libraryTitle: | Using Iterative Repair to Increase the Responsiveness of Planning and Scheduling for Autonomous Spacecraft |
Author: | Steve Chien, Russell Knight, Andre Stechert, Rob Sherwood, and Gregg Rabideau |
Book Tittle: | IJCAI99 Workshop on Scheduling and Planning meet Real-time Monitoring in a Dynamic and Uncertain World |
Month: | August |
Year: | 1999 |
Abstract: | An autonomous spacecraft must balance long-term and short-term considerations. It must perform purposeful activities that ensure long-term science and engineering goals are achieved and ensure that it maintains positive resource margins. This requires planning in advance to avoid a series of shortsighted decisions that can lead to failure. However, it must also respond in a timely fashion to a somewhat dynamic and unpredictable environment. Thus, spacecraft plans must often be modified due to fortuitous events such as early completion of observations and setbacks such as failure to acquire a guidestar for a science observation. This paper describes the use of iterative repair to support continuous modification and updating of a current working plan in light of changing operating context. |
Cited by 15 - Google Scholar
@InProceedings{chien99a,
author = {Steve Chien and Russell Knight and Andre Stechert
and Rob Sherwood and Gregg Rabideau},
title = {Using Iterative Repair to Increase the
Responsiveness of Planning and Scheduling for
Autonomous Spacecraft},
googleid = {f_c2WIlXB40J:scholar.google.com/},
booktitle = {{IJCAI99} Workshop on Scheduling and Planning meet
Real-time Monitoring in a Dynamic and Uncertain
World},
year = 1999,
address = {Stockholm, Sweden},
month = {August},
comment = {A description of the CASPER project.},
abstract = {An autonomous spacecraft must balance long-term and
short-term considerations. It must perform
purposeful activities that ensure long-term science
and engineering goals are achieved and ensure that
it maintains positive resource margins. This
requires planning in advance to avoid a series of
shortsighted decisions that can lead to
failure. However, it must also respond in a timely
fashion to a somewhat dynamic and unpredictable
environment. Thus, spacecraft plans must often be
modified due to fortuitous events such as early
completion of observations and setbacks such as
failure to acquire a guidestar for a science
observation. This paper describes the use of
iterative repair to support continuous modification
and updating of a current working plan in light of
changing operating context.},
keywords = {ai planning application},
url = {http://jmvidal.cse.sc.edu/library/chien99a.pdf},
cluster = {10162187331586946943}
}
Last modified: Wed Mar 9 10:14:42 EST 2011