An Infrastructure Oriented for Cataloging Services and Reuse of Analysis Patterns

Similar documents
DC2AP: A Dublin Core Application Profile to Analysis Patterns

DC2AP Metadata Editor: A Metadata Editor for an Analysis Pattern Reuse Infrastructure

APRImora: A Semantic Architecture for Patterns Reuse

A Java Tool for Creating ISO/FGDC Geographic Metadata

Implementing a Municipal SDI with Service Oriented Architecture

Task AR-09-01a Progress and Contributions

An Esri White Paper June 2011 ArcGIS for INSPIRE

EEOS Spatial Databases and GIS Applications

A MOBILE SERVICE ORIENTED MULTIPLE OBJECT TRACKING AUGMENTED REALITY ARCHITECTURE FOR EDUCATION AND LEARNING EXPERIENCES

Introduction to Geospatial Web Services

Adventures in Metadata: Addressing the Federal Geographic Data Committee (FGDC) Standard

A Spatial Data Infrastructure for a Spatially Enabled Government and Society

Content. What is Metadata Design and Thing Catalogs INSPIRE and digital Geo Data New Requirement: Pragmatics...and the w holy REST.

Discussing the role of university in spatial data infrastructure construction: issues and challenges for UERJ-V-SDI

Data Mining Governance for Service Oriented Architecture

Using Provenance to Improve Workflow Design

How To Use The Alabama Data Portal

Jarbas Nunes Vidal Filho Curriculum Vitae

GetLOD - Linked Open Data and Spatial Data Infrastructures

Andrea Buffam, Natural Resources Canada Canadian Metadata Forum National Library of Canada Ottawa, Ontario September 19 20, 2003

Service Oriented Architecture

EXPLORING AND SHARING GEOSPATIAL INFORMATION THROUGH MYGDI EXPLORER

A Software Tool for Thesauri Management, Browsing and Supporting Advanced Searches

A RDF Vocabulary for Spatiotemporal Observation Data Sources

SERENITY Pattern-based Software Development Life-Cycle

PhoCA: An extensible service-oriented tool for Photo Clustering Analysis

Using Wireless Sensor Networks in the Sensor Web for Flood Monitoring in Brazil

An Electronic Negotiation Coordinator for Software Development in Service-Oriented Environments

Evolving Infrastructure: Growth and Evolution of Spatial Portals

A Model for Component Based E-governance Software Systems

European Forest Information and Communication Platform

Adding Semantics to Business Intelligence

Winery A Modeling Tool for TOSCA-based Cloud Applications

Lightweight Data Integration using the WebComposition Data Grid Service

ECM Governance Policies

REACCH PNA Data Management Plan

A Hybrid Architecture for Mobile Geographical Data Acquisition and Validation Systems

Collaboration in Data Documentation: Developing STARDAT - The Data Archiving Suite

A BIAN Building Block Service Repository and Registry

Supporting FrameNet Project with Semantic Web technologies

CONDIS. IT Service Management and CMDB

Building Semantic Content Management Framework

Providing Context-Aware Information in a Mobile Geographical Information System

A Metamodel for Master Data

A Comparison of Service-oriented, Resource-oriented, and Object-oriented Architecture Styles

72. Ontology Driven Knowledge Discovery Process: a proposal to integrate Ontology Engineering and KDD

Background: Business Value of Enterprise Architecture TOGAF Architectures and the Business Services Architecture

HydroDesktop Overview

Statistical and Spatial Frameworks. Standards and Data Infrastructure

Spatial Data Infrastructure. A Collaborative Network

Francesco Tortorelli

Metadata Hierarchy in Integrated Geoscientific Database for Regional Mineral Prospecting

ACADEMIC RESEARCH INTEGRATION SYSTEM

Goals and Scenarios to Software Product Lines: the GS2SPL Approach

System Requirements for Archiving Electronic Records PROS 99/007 Specification 1. Public Record Office Victoria

Environment Canada Data Management Program. Paul Paciorek Corporate Services Branch May 7, 2014

GeoNetwork User Manual

Microsoft SOA Roadmap

The Ontology and Architecture for an Academic Social Network

A Comparative Analysis of Development Environments for Voluntary Geographical Information Web Systems

Providing GRASS with a Web Processing Service Interface

data.bris: collecting and organising repository metadata, an institutional case study

UPROM Tool: A Unified Business Process Modeling Tool for Generating Software Life Cycle Artifacts

Business Plan for the. The Geospatial Platform. September 20, 2012 REDACTED

Building a SDI for small countries the Portuguese example

Life Cycle Data Management for Japanese construction field

Metadata, Geospatial data, Data management, Project management, GIS

Quality of Service in a Global SDI

Resource Oriented Architecture and REST

Web services to allow access for all in dotlrn

AN AUTOMATIC AND METHODOLOGICAL APPROACH FOR ACCESSIBLE WEB APPLICATIONS

LEARNING CONTENT PYRAMID OF THE GIS COURSES

COIS Databases

A characterization of Volunteered Geographic Information

PDOK Kaart, the Dutch Mapping API

Network Working Group

Web Map Context Service for Adaptive Geospatial Data Visualization

Personalized e-learning a Goal Oriented Approach

An architecture for open and scalable WebGIS

Catalogue or Register? A Comparison of Standards for Managing Geospatial Metadata

INPE Spatial Data Infrastructure for Big Spatiotemporal Data Sets. Karine Reis Ferreira (INPE-Brazil)

Solutions for Central and Federal Governments

An adaptable domain specific dissemination infrastructure for enhancing the visibility of complementary and thematically related research information

Data Models For Interoperability. Rob Atkinson

SOPLE-DE: An Approach to Design Service-Oriented Product Line Architectures

ProGUM-Web: Tool Support for Model-Based Development of Web Applications

Using Dublin Core for DISCOVER: a New Zealand visual art and music resource for schools

Common Warehouse Metamodel (CWM): Extending UML for Data Warehousing and Business Intelligence

GIS Initiative: Developing an atmospheric data model for GIS. Olga Wilhelmi (ESIG), Jennifer Boehnert (RAP/ESIG) and Terri Betancourt (RAP)

A Comparison of Service-oriented, Resource-oriented, and Object-oriented Architecture Styles

GeoNetwork, The Open Source Solution for the interoperable management of geospatial metadata

A HUMAN RESOURCE ONTOLOGY FOR RECRUITMENT PROCESS

Establishment of Spatial Data Infrastructure within the Environmental Sector in Slovak Republic

ENTERPRISE ARCHITECTUE OFFICE

Application of ontologies for the integration of network monitoring platforms

known as the Sharable Content Object Reference Model (SCORM). It became the standard for all LMSs. INTRODUCTION

A Model-based Software Architecture for XML Data and Metadata Integration in Data Warehouse Systems

and ensure validation; documents are saved in standard METS format.

Spatial Data Infrastructure to Facilitate Coastal Zone Management

ADVANCED GEOGRAPHIC INFORMATION SYSTEMS Vol. II - Using Ontologies for Geographic Information Intergration Frederico Torres Fonseca

Transcription:

An Infrastructure Oriented for Cataloging Services and Reuse of Analysis Patterns Lucas Francisco da Matta Vegi, Douglas Alves Peixoto, Liziane Santos Soares, Jugurta Lisboa-Filho, and Alcione de Paiva Oliveira Departamento de Informática, Universidade Federal de Viçosa Viçosa-MG, Brazil, 36570-000 {lucasvegi,douglasalves.ufv}@gmail.com, {liziane.soares,jugurta}@ufv.br, alcione@dpi.ufv.br Abstract. Patterns have been employed as a mechanism for reuse in several phases of software development. Analysis patterns consist of artifacts for reuse during the requirements analysis and conceptual modeling. However, they are generally, documented in a textual manner which is not precise to be treated by a computer, thus limiting the dissemination and a wider reuse. Within the geo-processing area, Spatial Data Infrastructures (SDI) has been used quite effectively as an instrument for the reuse of geospatial data and services. Based on the development of SDIs, this article proposes an Analysis Patterns Reuse Infrastructure (APRI) comprising web services and a metadata representation for the specification of analysis patterns, in order to support the cataloging and reusing of analysis patterns. Keywords: Analysis Patterns, Reuse, Dublin Core, SOA, Spatial Data Infrastructure. 1 Introduction Spatial Data Infrastructure (SDI) is a relevant base collection of technologies, policies and institutional arrangements that facilitate the availability of and access to spatial data. The SDI provides a basis for spatial data discovery, evaluation, and application for users and providers within all levels of government, the commercial sector, the non-profit sector, academia and by citizens in general [1]. Currently, most of SDI are based on Service-Oriented Architecture (SOA), allowing to create shared environments, distributed and interoperable based on Web Services [2]. The use of SDI allow the availability of spatial data bases resulting from different providers, bringing facilities to the user to acquire new datasets, without the need to build them or convert them, generating duplicity and overcharging his work [3]. Appropriate documentation of data and services is a very important point in the development of an SDI. This documentation is produced through defined metadata from a standard metadata specification, for instance, Dublin Core [4]. F. Daniel et al. (Eds.): BPM 2011 Workshops, Part II, LNBIP 100, pp. 338 343, 2012. c Springer-Verlag Berlin Heidelberg 2012

An Infrastructure for Reuse of Analysis Patterns 339 Fowler [5] describes analysis patterns as an idea that has proven to be useful in a given practical context and that can be useful in other contexts. This category of patterns is focused on the reuse of artifacts generated during the requirements analysis and conceptual modeling phases. Analysis patterns were a well-researched topic in the past, resulting in publications in various domains. However, recently the number of publications in this subject decreased. The work of Blaimer, Bortfeldt and Pankratz [6] places the theme back in focus, wherein the authors present a detailed review of the literature about analysis patterns and propose new research challenges in this subject. Documentation of analysis patterns is important to describe the context in which they can be reused and make possible the sharing of knowledge among designers [7]. Describing a pattern improperly can generate redundant patterns or patterns in an inadequate context, thus compromising their reuse by other designers [8]. In the field of Geographic Information Systems (GIS), SDI has been used very efficiently as a tool for reusing services and geospatial data. In a way analogous to how geospatial data are documented and recovered in an SDI, the documentation of analysis patterns by means of metadata and its recovery made through Web services can contribute to the dissemination and increase of reuse of these patterns. Thus, the aim of this paper is to propose a service-oriented infrastructure to support the cataloging and reuse of analysis patterns. The rest of the paper is organized as follows: Section 2 describes related work with metadata standards and ways of specifying analysis patterns. Section 3 describes the architecture of a service-oriented infrastructure for reuse of analysis patterns. Section 4 presents some concluding remarks. 2 Related Works 2.1 Metadata Standards Metadata consists of data about data. Metadata standards are used to standardize the set of elements of the data description. For example, a standard for geospatial metadata may contain the title, a general description, authors, the spatial limits of the data, quality aspects, and other elements, thus facilitating the search, retrieval and reuse data appropriately [4]. The structure of a data description, given by metadata, can vary according to the domain of the described data. Considering this situation, many standards have been created in order to establish structures of metadata for specific areas and thus enable a common understanding for a community of users. The standard CSDGM (Content Standard for Digital Geospatial Metadata) is the most used standard worldwide to describe spatial data. It was created by the FGD (Federal Geographic Data Committee) in 1994 to support construction of U.S. SDI (NSDI - National Spatial Data Infrastructure) [9]. This standard is composed by 469 elements.

340 L.F. da Matta Vegi et al. The ISO 19115 standard [10] was proposed in 2003 with the aim of becoming the main standard in the field of spatial data and services. This metadata standard is very wide and rich in detail, consisting of 509 elements. There are also generic standards metadata that can be used more widely, for example, the Dublin Core Metadata Initiative (DCMI) [11]. The Dublin Core standard is only composed of 15 elements, and usually all of these elements are present in any broader metadata standard. No element of the Dublin Core is mandatory and all of them can be repeated many times during a data description. Its simplicity brings benefits such as lower costs of implementation and promotion of interoperability between data from different domains, however, the small number of elements that make up the standard does not provide sufficient semantic descriptions of data to describe complex domains [12]. Although the Dublin Core standard is generic and very simple, it can be used as a basis for creating profiles for specific domains from the addition of new elements, specification of rules for the occurrence of the elements and definition of types of values for each element [4]. 2.2 Templates for Analysis Patterns Specification Analysis patterns can be specified from predefined templates and outlines. The usability of an analysis pattern is reduced if the author does not use a template or uses an incomplete one to specify the pattern [6]. So far, there is no widely accepted template for specifying analysis patterns, therefore, different methodologies are used for specification. Quite often they are derived from templates geared to specify design patterns and does not fully meet the specificities of analysis patterns [6]. Considering the shortcomings in the templates oriented to specification of analysis patterns, Pantoquilho, Raminhos and Araújo propose in[13] a specific template for analysis patterns documentation. This template contains the elements of the previous approaches used to describe patterns, as well as several additional elements for a more complete description of the analysis patterns. 3 A Web Services Infrastructure for Reuse of Analysis Patterns Based on the infrastructure for the reuse of geospatial data, this paper proposes an Analysis Patterns Reuse Infrastructure (APRI), composed of Web services, thereby featuring architecture of SOA (Service-Oriented Architecture) [14]. The scenario offered by SOA has providers, integrators and service users as actors, and users can be human or software clients. Thus, data and services of the APRI can be accessed by human users and software clients. The APRI (Figure.1) consists of the following components: Pattern Portal: contains a set of Web sites focused on obtaining the analysis patterns and tools and services that provide discovery, cataloging and reuse of them.

An Infrastructure for Reuse of Analysis Patterns 341 Metadata Repository: are repositories that contain metadata in XML (extensible Markup Language) for the specification of analysis patterns and services contained in the APRI. The template used for the specification of analysis patterns is a customization of the 15 elements of the Dublin Core standard with the items of the template proposed by Pantoquilho, Raminhos and Araújo [13]. Analysis Pattern Repository: are repositories that contain the analysis patterns in the XMI format (XML Metadata Interchange), allowing their use for visualization and collaboration services. Portrayal Service: are services that support the visualization of the analysis patterns of APRI. Catalog Service: these services enable the discovery and use of analysis patterns and services of APRI, based on their metadata. Access Service: these services allow to access and download the analysis patterns. Collaboration Service: these services allow the experienced designer to contribute improving the analysis patterns. The definition of this services infrastructure for reuse of analysis patterns is basedoncomponentsproposedbybéjar [15], for creating SDI. Fig. 1. Analysis Patterns Reuse Infrastructure (APRI) 4 Final Considerations The architecture proposed in this paper allows the development of a serviceoriented infrastructure for the cataloging and reusing of analysis patterns. This proposal seeks to solve a problem in the reuse of analysis patterns, related to

342 L.F. da Matta Vegi et al. the manner through which patterns are documented. With a more suitable documentation, analysis patterns can be more easily discovered, studied and reused. The Dublin Core standard has being widely used for items documentation such as work of art, museum pieces, maps, websites, etc. One of the advantages of this standard is that the metadata can be easily found by Web search engines, as they are structured by tags, making easy the semantic contextualization. Thus, the Dublin Core can also be adapted to document analysis patterns. The use of Web services allows as much the reuse of analysis patterns by human designers as the automatic reuse done with CASE tools support. A APRI prototype is being developed by the information systems research group of Departamento de Informática at Universidade Federal de Viçosa. As future work, we can mention the studies on the use of the Dublin Core as a metadata standard for documenting other computational artifacts. Acknowledgements. This project is partially financed by Brazilian funding agencies: FAPEMIG, CNPq and CAPES. The authors also acknowledge the financial support of the company Sydle. References 1. Nebert, D.D.: Developing spatial data infrastructures: the SDI Cookbook, version 2.0. (GSDI-Technical Working Group) (2004), http://www.gsdi.org/docs2004/cookbook/cookbookv2.0.pdf 2. Davis Júnior, C.A., Alves, L.L.: Local Spatial Data Infrastructures based on a Service-Oriented Architecture. In: 8th Brazilian Symposium on GeoInformatics (GeoInfo 2005), São Paulo, Brazil, pp. 30 45 (2005) 3. Rajabifard, A., Williamson, I.P.: Spatial data infrastructure, concept, SDI hierarchy and future directions. In: GEOMATICS 1980 Conference, pp. 28 37. NCC, Tehran (2001) 4. Nogueras-Iso, J., Zarazaga-Soria, F.J., Muro-Medrano, P.R.: Geographic Information Metadata for Spatial Data Infrastructures: Resources, Interoperability and Information Retrieval. Springer-Verlag New York, Inc., Secaucus (2005) 5. Fowler, M.: Analysis Patterns: Reusable Object Models. Addison-Wesley Publishing (1997) 6. Blaimer, N., Bortfeldt, A., Pankratz, G.: Patterns in Object-Oriented Analysis, Working Paper No. 451, Faculty of Business Administration and Economics, University of Hagen (Germany) (2010) 7. Silva, E.O., Lisboa Filho, J., Oliveira, A.P., Gonçalves, G.S.: Improving analysis patterns in the geographic domain using ontological meta-properties. In: 10th International Conference On Enterprise Information Systems (ICEIS), Barcelona, Espanha, pp. 256 261 (2008) 8. Hamza, H.S.: Improving analysis patterns reuse: An ontological approach. In: Proc. of Ontologies as Software Engineering Artifacts Workshop, OOPSLA 2004 (2004) 9. FGDC.: Content Standard for Digital Geospatial Metadata Workbook version 2.0. Federal Geographic Data Committee, Metadata Ad Hoc Working Group (2000) 10. ISO.: Geographic information - Metadata. ISO 19115:2003, International Organization for Standardization (2003)

An Infrastructure for Reuse of Analysis Patterns 343 11. Dublin Core Metadata Initiative (DCMI), http://www.dublincore.org 12. National Information Standards Organization - NISO (U.S.).: The Dublin Core Metadata Element Set: an American national standard. NISO Press, Bethesda, MD, USA (2001) 13. Pantoquilho, M., Raminhos, R., Araújo, J.: Analysis Patterns Specifications: Filling the Gaps. In: II VIKING PLOP, Bergen, Norway (2003) 14. Doyle, A., Reed, C.: Introduction to OGC Web Services (2001) 15. Béjar, R., Latre, M.Á., Nogueras-Iso, J., Muro-Medrano, P.R., Zarazaga-Soria, F.J.: An architectural style for spatial data infrastructures. International Journal of Geographical Information Science 23(3), 271 294 (2009)