Understanding Task-driven Information Flow in Collaborative Networks

Collaborative networks are a special type of social network formed by members who collectively achieve specific goals, such as fixing software bugs and resolving customers’ problems. In such networks, information flow among members is driven by the tasks assigned to the network, and by the expertise...

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Main Authors: MIAO, Gengxin, TAO, Shu, CHENG, Winnie, Moulic, Randy, Moser, Louise E., LO, David, YAN, Xifeng
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Language:English
Published: Institutional Knowledge at Singapore Management University 2012
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Online Access:https://ink.library.smu.edu.sg/sis_research/1536
http://www2012.wwwconference.org/proceedings/proceedings/p849.pdf
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Institution: Singapore Management University
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spelling sg-smu-ink.sis_research-25352012-07-17T13:28:26Z Understanding Task-driven Information Flow in Collaborative Networks MIAO, Gengxin TAO, Shu CHENG, Winnie Moulic, Randy Moser, Louise E. LO, David YAN, Xifeng Collaborative networks are a special type of social network formed by members who collectively achieve specific goals, such as fixing software bugs and resolving customers’ problems. In such networks, information flow among members is driven by the tasks assigned to the network, and by the expertise of its members to complete those tasks. In this work, we analyze real-life collaborative networks to understand their common characteristics and how information is routed in these networks. Our study shows that collaborative networks exhibit significantly different properties compared with other complex networks. Collaborative networks have truncated power-law node degree distributions and other organizational constraints. Furthermore, the number of steps along which information is routed follows a truncated power-law distribution. Based on these observations, we developed a network model that can generate synthetic collaborative networks subject to certain structure constraints. Moreover, we developed a routing model that emulates task-driven information routing conducted by human beings in a collaborative network. Together, these two models can be used to study the efficiency of information routing for different types of collaborative networks – a problem that is important in practice yet difficult to solve without the method proposed in this paper. 2012-04-01T07:00:00Z text https://ink.library.smu.edu.sg/sis_research/1536 info:doi/10.1145/2187836.2187951 http://www2012.wwwconference.org/proceedings/proceedings/p849.pdf Research Collection School Of Computing and Information Systems eng Institutional Knowledge at Singapore Management University Information Flow Collaborative Networks Social Routing Software Engineering
institution Singapore Management University
building SMU Libraries
continent Asia
country Singapore
Singapore
content_provider SMU Libraries
collection InK@SMU
language English
topic Information Flow
Collaborative Networks
Social Routing
Software Engineering
spellingShingle Information Flow
Collaborative Networks
Social Routing
Software Engineering
MIAO, Gengxin
TAO, Shu
CHENG, Winnie
Moulic, Randy
Moser, Louise E.
LO, David
YAN, Xifeng
Understanding Task-driven Information Flow in Collaborative Networks
description Collaborative networks are a special type of social network formed by members who collectively achieve specific goals, such as fixing software bugs and resolving customers’ problems. In such networks, information flow among members is driven by the tasks assigned to the network, and by the expertise of its members to complete those tasks. In this work, we analyze real-life collaborative networks to understand their common characteristics and how information is routed in these networks. Our study shows that collaborative networks exhibit significantly different properties compared with other complex networks. Collaborative networks have truncated power-law node degree distributions and other organizational constraints. Furthermore, the number of steps along which information is routed follows a truncated power-law distribution. Based on these observations, we developed a network model that can generate synthetic collaborative networks subject to certain structure constraints. Moreover, we developed a routing model that emulates task-driven information routing conducted by human beings in a collaborative network. Together, these two models can be used to study the efficiency of information routing for different types of collaborative networks – a problem that is important in practice yet difficult to solve without the method proposed in this paper.
format text
author MIAO, Gengxin
TAO, Shu
CHENG, Winnie
Moulic, Randy
Moser, Louise E.
LO, David
YAN, Xifeng
author_facet MIAO, Gengxin
TAO, Shu
CHENG, Winnie
Moulic, Randy
Moser, Louise E.
LO, David
YAN, Xifeng
author_sort MIAO, Gengxin
title Understanding Task-driven Information Flow in Collaborative Networks
title_short Understanding Task-driven Information Flow in Collaborative Networks
title_full Understanding Task-driven Information Flow in Collaborative Networks
title_fullStr Understanding Task-driven Information Flow in Collaborative Networks
title_full_unstemmed Understanding Task-driven Information Flow in Collaborative Networks
title_sort understanding task-driven information flow in collaborative networks
publisher Institutional Knowledge at Singapore Management University
publishDate 2012
url https://ink.library.smu.edu.sg/sis_research/1536
http://www2012.wwwconference.org/proceedings/proceedings/p849.pdf
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