Using chemical reactions to model service composition

Napoli, Claudia Di; Giordano, Maurizio; Németh, Zsolt; Tonellotto, Nicola

doi:10.1145/1809036.1809047

Cited by 13 publications

(8 citation statements)

References 13 publications

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“…Di Napoli et al [7] show how a specified workflow can be instantiated using chemical reactions. In this approach, chemical reactions are used for "binding" the services to the pre-specified workflow.…”

Section: Related Workmentioning

confidence: 99%

Self-composition of services with chemical reactions

Angelis

Fernandez-Marquez

Serugendo

2014

Proceedings of the 29th Annual ACM Symposium on Applied Computing

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Abstract-Service-oriented programming has dramatically changed the way software applications are developed. Automatic composition of services reduces human interaction on choosing the set of services that satisfy a specific request. Automatic composition has mainly been done in a centralised way with the composition specified at design time or in a decentralised manner through multi-agent systems planing. These approaches present several limitations when used in dynamically changing environments like pervasive computing scenarios. Very few proposals investigate the design of the composition arising as a result of an ongoing self-organising process that permanently adapts to context and environmental changes. In this paper we define three chemically inspired approaches for self-composition of services operating on top of a shared tuple space. We show how tuple spaces can be exploited to design spontaneous and emergent compositions that deal with context information and a dynamic set of available services. Then we prove that our algorithms can be generalised to produce compositions of services with very common features. and show how our algorithms can be easily implemented to provide self-composition of actual Web services.

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Section: Related Workmentioning

confidence: 99%

Self-composition of services with chemical reactions

Angelis

Fernandez-Marquez

Serugendo

2014

Proceedings of the 29th Annual ACM Symposium on Applied Computing

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“…The computational 'molecules' are stored in a multi-set, and their reactions occur in parallel and in an autonomous way. Hence, services may be composed to fulfil tasks that are specified as workflows [82].…”

Section: Surveymentioning

confidence: 99%

Self-healing and self-repairing technologies

Frei

McWilliam

Derrick

et al. 2013

Int J Adv Manuf Technol

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This article reviews the existing work in selfhealing and self-repairing technologies, including work in software engineering, materials, mechanics, electronics, MEMS, self-reconfigurable robotics, and others. It suggests a terminology and taxonomy for self-healing and selfrepair, and discusses the various related types of other self-* properties. The mechanisms and methods leading to selfhealing are reviewed, and common elements across disciplines are identified.

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“…Chemistry‐inspired models have previously been used in workflow enactment research . The chemical model has also been used to enable dynamic service composition . J. P. Banatre et al .…”

Section: A Chemical Metaphormentioning

confidence: 99%

“…Chemistry-inspired models have previously been used in workflow enactment research [8][9][10]. The chemical model has also been used to enable dynamic service composition [11]. J. P. Banatre et al [12] suggested a chemical model for programming and modelling of self-organising systems.…”

Section: A Chemical Metaphormentioning

confidence: 99%

Approaching the Internet of things (IoT): a modelling, analysis and abstraction framework

Ikram

Anjum

Hill

et al. 2013

Concurrency and Computation

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(2015) Approaching the Internet of things (IoT): a modelling, analysis and abstraction framework. Concurrency and Computation: Practice and Experience, 27 (8). pp. 1966-1984., DisclaimerThe University of Gloucestershire has obtained warranties from all depositors as to their title in the material deposited and as to their right to deposit such material.The University of Gloucestershire makes no representation or warranties of commercial utility, title, or fitness for a particular purpose or any other warranty, express or implied in respect of any material deposited.The University of Gloucestershire makes no representation that the use of the materials will not infringe any patent, copyright, trademark or other property or proprietary rights.The University of Gloucestershire accepts no liability for any infringement of intellectual property rights in any material deposited but will remove such material from public view pending investigation in the event of an allegation of any such infringement. SUMMARYThe evolution of communication protocols, sensory hardware, mobile and pervasive devices, alongside social and cyber-physical networks, has made the Internet of things (IoT) an interesting concept with inherent complexities as it is realised. Such complexities range from addressing mechanisms to information management and from communication protocols to presentation and interaction within the IoT. Although existing Internet and communication models can be extended to provide the basis for realising IoT, they may not be sufficiently capable to handle the new paradigms that IoT introduces, such as social communities, smart spaces, privacy and personalisation of devices and information, modelling and reasoning. With interaction models in IoT moving from the orthodox service consumption model, towards an interactive conversational model, nature-inspired computational models appear to be candidate representations. Specifically, this research contests that the reactive and interactive nature of IoT makes chemical reaction-inspired approaches particularly well suited to such requirements. This paper presents a chemical reaction-inspired computational model using the concepts of graphs and reflection, which attempts to address the complexities associated with the visualisation, modelling, interaction, analysis and abstraction of information in the IoT.

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Using chemical reactions to model service composition

Cited by 13 publications

References 13 publications

Self-composition of services with chemical reactions

Self-composition of services with chemical reactions

Self-healing and self-repairing technologies

Approaching the Internet of things (IoT): a modelling, analysis and abstraction framework

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