An object-oriented framework for event-driven dextrous manipulation

Author(s):  
James M. Hyde ◽  
Marc R. Tremblay ◽  
Mark R. Cutkosky
Author(s):  
Tran Thanh Luong ◽  
Le My Canh

JavaScript has become more and more popular in recent years because its wealthy features as being dynamic, interpreted and object-oriented with first-class functions. Furthermore, JavaScript is designed with event-driven and I/O non-blocking model that boosts the performance of overall application especially in the case of Node.js. To take advantage of these characteristics, many design patterns that implement asynchronous programming for JavaScript were proposed. However, choosing a right pattern and implementing a good asynchronous source code is a challenge and thus easily lead into less robust application and low quality source code. Extended from our previous works on exception handling code smells in JavaScript and exception handling code smells in JavaScript asynchronous programming with promise, this research aims at studying the impact of three JavaScript asynchronous programming patterns on quality of source code and application.


Author(s):  
Peter Rittgen

Early information systems were mainly built around secondary, administrative processes of the value chain (e.g., accounting). But since the internet came into use, more and more primary processes have become accessible to automation: customer acquisition, ordering, billing and, in the case of intangible goods such as software, even delivery. Hence an increasing part of an enterprise has to be modeled and a substantial part thereof is implemented, usually in an object-oriented programming language like Java. To facilitate this complex task, the MEMO methodology (Multi-perspective Enterprise MOdeling) allows the description of the enterprise on three levels – strategy, organization and information system – and from four angles – process, structure, resources and goals. All partial models for the views are integrated via a common object-oriented core. In this framework we suggest a modeling method for the IS layer, the Event-driven Method Chain (EMC). It is based on the Event-driven Process Chain (EPC) by Scheer, which we adapt to fit both the MEMO methodology and the object-oriented paradigm thus making it suitable for the development of web-based applications. To illustrate this we use the example of a software trading company.


Author(s):  
Peter Rittgen

Early information systems were mainly built around secondary, administrative processes of the value chain (e.g., accounting). But since the Internet came into use, more and more primary processes have become accessible to automation: customer acquisition, ordering, billing and, in the case of intangible goods such as software, even delivery. To facilitate this complex task, we suggest that the relevant parts of the enterprise be modeled according to the MEMO (Multi-perspective Enterprise MOdeling) method. It allows for the description of an enterprise on three levels-strategy, organization and information system-and from four angles-process, structure, resources and goals. All partial models for the views are integrated via a common object-oriented core. In this framework we suggest a modeling language for the IS layer, the Event-driven Method Chain (EMC), a process-oriented language based on Event-driven Process Chains (EPCs), which we adapt to fit both the MEMO framework and the object-oriented paradigm, thus making it suitable for the development of Web-based applications in an object-oriented programming language. To illustrate this we use the example of a software trading company.


2007 ◽  
Vol 19 (3) ◽  
pp. 298-307 ◽  
Author(s):  
Kazumi Oikawa ◽  
◽  
Hidenori Takauji ◽  
Takanori Emaru ◽  
Takeshi Tsuchiya ◽  
...  

We discuss decision making for a behavior-based robot with modules which determining robot action. The subsumption architecture (SA) arranges modules in layers, giving upper-layer module action priority over lower-layer modules. Although implementation is easy, results in many inefficient actions because upper-layer module are used regardless of other modules. We solve this problem by representing actions by Potential Function (PF), in which maximum votes are collected from modules. Using event-driven state transition, the robot decides its action with appropriate sets of modules changed based on the situation. We apply this to navigation tasks in a corridor and show simulation results. When we give a map and path designation to the robot, we use a handwriting map interface. We compare object-oriented design SA and PMF with our proposal and show how inefficient actions are reduced using our proposal.


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