Autonomic computing undoubtedly represents the solution for dealing with the complexity of modern computing systems, driven by ever increasing user needs and requirements. The design and management of autonomic computing systems must be performed both rigorously and carefully. Valuable lessons in this direction can be learned from biological and supply chain networks. This paper identifies and discusses but a few transferable lessons from biological and supply chain networks to autonomic computing. Characteristics such as structural and operational complexity and the agent information processing capabilities are considered for biological and supply chain networks. The relevance of the performance measures and their impact on the design, management and performance of autonomic computing systems are also considered. For example, spare resources are often found in biological systems. On the other hand, spare resources are frequently considered a must-not property in designed systems, due to the additional costs associated with them. Several of the lessons include the fact that a surprisingly low number of types of elementary agents exist in many biological systems, and that architectural and functional complexity and dependability are achieved through complex and hierarchical connections between a large number of such agents. Lessons from supply chains include the fact that, when designed and managed appropriately, complexity becomes a value-adding property that can bring system robustness and flexibility in meeting the users’ needs. Furthermore, information-theoretic methods and case-study results have shown that an integrated supply chain requires in-built spare capacity if it is to remain manageable.
[1]
Caroline Kovac.
Computing in the Age of the Genome
,
2003,
Comput. J..
[2]
Duncan Johnston-Watt.
Under New Management
,
2006,
ACM Queue.
[3]
Marie-Pierre Gleizes,et al.
Self-Organisation and Emergence in MAS: An Overview
,
2006,
Informatica.
[4]
Hau L. Lee,et al.
Information distortion in a supply chain: the bullwhip effect
,
1997
.
[5]
John Nolte,et al.
The Human Brain An Introduction to Its Functional Anatomy
,
2013
.
[6]
Fred H. Gage,et al.
Generation of neuronal variability and complexity
,
2006,
Nature.
[7]
P. Hunter,et al.
Computational physiology and the physiome project
,
2004,
Experimental physiology.
[8]
Janet Efstathiou,et al.
A study on the cost of operational complexity in customer-supplier systems
,
2007
.
[9]
I. Couzin,et al.
Self-Organization and Collective Behavior in Vertebrates
,
2003
.
[10]
R. Kanter.
The ten deadly mistakes of wanna-dots.
,
2001,
Harvard business review.
[11]
Jeffrey O. Kephart,et al.
The Vision of Autonomic Computing
,
2003,
Computer.
[12]
H. P. Raghunandan,et al.
On the existence of truly autonomic computing systems and the link with quantum computing
,
2004,
ArXiv.
[13]
Philip M. Kaminsky,et al.
Designing and managing the supply chain : concepts, strategies, and case studies
,
2007
.
[14]
Nigel Slack,et al.
Operations management
,
1994
.
[15]
J. Efstathiou,et al.
The urge to integrate [integrated supply chains]
,
2003
.