Methodology standards

Booch, Grady; Henderson‐Sellers, Brian; Jacobson, Ivar; Mellor, Steve; Rumbaugh, James; Wirfs-Brock, Rebecca; Monarchi, David E.

doi:10.1145/191081.191115

Cited by 50 publications

(75 citation statements)

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“…While the name can be a good source of information it can also be misleading and we leave this aspect of the investigation for future work. Our initial taxonomy included the standard set of overarching stereotypes of entity, boundary and control class stereotypes [9]. We expanded this simple taxonomy as necessary to cover recurring stereotypes that emerged from our empirical investigation.…”

Section: Taxonomy Of Class Stereotypesmentioning

confidence: 99%

Automatic identification of class stereotypes

Dragan

Collard

Maletic

2010

2010 IEEE International Conference on Software Maintenance

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Section: Taxonomy Of Class Stereotypesmentioning

confidence: 99%

Automatic identification of class stereotypes

Dragan

Collard

Maletic

2010

2010 IEEE International Conference on Software Maintenance

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“…A representação conceitual do sistema e o modelo arquitetural foram elaborados a partir das representações dispostas na UML, proposta por (Booch, Rumbaugh & Jacobson, 1998) e (Booch, Rumbaugh & Jacobson, 2006).…”

Section: Modelagem Conceitualunclassified

Um Sistema De Comunicação via Socket Em Uma Rede Wi-Fi Para Controle De Um Robô De Inspeção

Lima

Ribeiro

Almeida³

et al. 2017

HOLOS

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RESUMOEste trabalho apresenta uma aplicação desenvolvida para controlar remotamente um robô de inspeção. Para construir o projeto eletromecânico foi utilizado um kit Lego NXT Mindstorm. A aplicação foi desenvolvida em JAVA e conta com uma interface gráfica que permite operar e controlar o robô remotamente através de rotinas que rodam em um ambiente cliente / servidor. A comunicação entre estação controladora (servidor) e estação robótica é feita utilizando uma rede wi-fi, que funciona sobre o protocolo TCP (Transmission Control Protocol) e UDP (User Datagram Protocol), juntamente com o protocolo IP (Internet Protocol) configurados em uma porta de comunicação. Uma segunda camada de aplicação foi desenvolvida com um conjunto de instruções (sockets) responsáveis pela comunicação e pelos movimentos controlados do robô, os quais são transmitidos da estação servidora para estação cliente. Para modelar o sistema, os eventos, os controles e os estados do componente robótico foram utilizados alguns diagramas da UML 2.4. O componente robótico, por sua vez, foi construído utilizando um chassi de madeira, um núcleo controlador NXT e três servo motores Lego NXT Mindstorm, além de uma estação computacional para enviar e receber os sinais wi-fi. Para permitir à operação e o controle a distância, foi necessário instalar uma webcam em um dos servo motores com rotações para direita e para a esquerda. A finalidade da webcam é capturar as imagens do ambiente através da estação cliente e enviá-las ao servidor em tempo real, por meio do protocolo RTP (Real-time Transfer Protocol). Um conjunto de sockets foi utilizado para enviar os comandos de operação da estação servidora ao componente robótico. Desta forma, é possível a manipulação do robô pelo controlador e o monitoramento do ambiente a ser inspecionado. PALAVRAS-CHAVE:Lego NXT Mindstorm, Robô de inspeção, Protocolos de Comunicação, Ambiente de Controle. A COMMUNICATION SYSTEM VIA SOCKET IN A WI-FI NETWORK TO CONTROL A INSPECTION ROBOT ABSTRACTThis paper presents an application developed to control remotely an inspection robot. To build the electromechanical design we used a kit Lego Mindstorm NXT. The application was developed in Java and has a graphical interface that allows operating and controlling the robot remotely through routines that run in a client/server environment. Communication between controller station (server) and robotics station is made using a Wi-Fi network, which runs over TCP (Transmission Control Protocol) and UDP (User Datagram Protocol), along with the IP (Internet Protocol) configured in a communication port. A second application layer was developed with a set of instructions (sockets) responsible for communicating and for controlled robot movements, which are transmitted from the host server to the client station. To model the system, controls events and states of robotic components were used some diagrams of the UML 2.4. The robotic component was built using a wooden frame, one NXT controller core and three servo motors Lego Mindstorm NXT, and a compute...

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“…The design phase is based on extended UML activity diagrams. We build on recent extensions to these diagrams [4,6], with the aim of representing events (temporal, external and data events), multi-tasks, transactional aspects and temporal constraints. Reuse of patterns is detailed in this phase, with the actual selection of the reuse components (indicated in the analysis) from the library, and the application of reuse primitives that allow the designer to insert instantiated and customised patterns in the workflow schemas.…”

Section: Wires Phasesmentioning

confidence: 99%

“…1 It follows the three basic steps initially proposed (analysis, design, and mapping to implementation), but adopts a single notation, namely an extension of UML (Unified Modeling Language) [6]. The use of UML makes the methodology compliant with object-oriented notations, and can be employed together with object-oriented software development methodologies [7], also supporting software development by components reuse.…”

Section: Introductionmentioning

confidence: 99%

WIRES: A Methodology for Developing Workflow Applications

et al. 2002

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Workflow management systems are becoming a relevant support for a large class of business applications, and many workflow models as well as commercial products are currently available. While the large availability of tools facilitates the development and the fulfilment of customer requirements, workflow application development still requires methodological guidelines that drive the developers in the complex task of rapidly producing effective applications. In fact, it is necessary to identify and model the business processes, to design the interfaces towards existing cooperating systems, and to manage implementation aspects in an integrated way. This paper presents the WIRES methodology for developing workflow applications under a uniform modelling paradigm -UML modelling tools with some extensions -that covers all the life cycle of these applications: from conceptual analysis to implementation. High-level analysis is performed under different perspectives, including a business and an organisational perspective. Distribution, interoperability and cooperation with external information systems are considered in this early stage. A set of 'workflowability' criteria is provided in order to identify which candidate processes are suited to be implemented as workflows. Nonfunctional requirements receive particular emphasis in that they are among the most important criteria for deciding whether workflow technology can be actually useful for implementing the business process at hand. The design phase tackles aspects of concurrency and cooperation, distributed transactions and exception handling. Reuse of component workflows, available in a repository as workflow fragments, is a distinguishing feature of the method. Implementation aspects are presented in terms of rules that guide in the selection of a commercial workflow management system suitable for supporting the designed processes, coupled with guidelines for mapping the designed workflows onto the model offered by the selected system.

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Methodology standards

Cited by 50 publications

References 0 publications

Automatic identification of class stereotypes

Automatic identification of class stereotypes

Um Sistema De Comunicação via Socket Em Uma Rede Wi-Fi Para Controle De Um Robô De Inspeção

WIRES: A Methodology for Developing Workflow Applications

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