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OverviewThe marriage of artistic creativity and computer technology is not a new concept. CADsystems are well established as tools of trade in many creative fields such as character animation and special effects production. This integration has motivated the development of complex computer applications that supply artists with a greater means of creative expression. Dance Notation applications that facilitate the documentation and interpretation of movement notation scores are an example of this. Up until now literature has placed emphasis on the fact that existing dance notation applications are not equipped to detect or prevent errors made during the composition of movement (Calvert et al. 2005). A possible explanation for this can be understood in regard to the original intent and design of these applications. Typically, dance notation applications, like MacBenesh and LabanWriter have been designed by and for expert use. As a result this directly impacts the usability of these applications, which function more as drawing tools and require an expert knowledge of them to operate effectively. ProblemThis research examines the difficulties associated with designing an appropriate systemof interaction, especially the interaction between an artist and system that will work to facilitate the composition of Labanotation scores. It seeks to understand the complexities of describing movement and the creation of Labanotation scores with computational support tools for novice users of the language. The range of human movement is vast. For that reason a systematic approach to the description of movement is inherently difficult to structure and predict. Accordingly, Labanotation is a complex system that consists of over seven hundred symbols. The composition of Labanotation scores are contingent upon the selection of individual symbols that when combined represent a description of movement. Therefore when devising an appropriate course of interaction that assists a diverse description of movement, it is necessary to involve potential users of the system to envision a flexible structure to guide its composition. ApproachThis research is based on the premise that, we as designers create our own subjectmatter in the act of designing new products or services. To facilitate this investigation participatory design methods that involve users in the design process assist in capturing a subjective account of user needs and requirements. This approach is built upon the understanding that user-centered design and participatory design processes serve as effective approaches to adapting technology for greater ease-of-use. In support of this Carroll (2006) tells us that a greater understanding of the function end-users provide in characterizing the variety of human activity in design planning and development has seen their active involvement in the design process, much earlier on than it has previously. Therefore, the users role as informants during interviews, task analysis workshops and card sorting techniques, provide designers with valuable experiential information regarding the process of describing movement. When combined with, usability testing that involves observation of users who think aloud while composing Labanotation scores offer designers a broad range of techniques and strategies to develop interactive systems for the documentation of movement. Key Research QuestionsThere are a variety of approaches and techniques in which Participatory Designmethods are implemented into the design process. The focus of this research seeks to determine, how designers can effectively develop, document and represent knowledge created during task analysis workshops, in a visual schematic to better understand the users' perception of their needs and requirements. It briefly examines what types of information can be visualized, the types of problems they represent and enable us to solve. Knowledge RepresentationArnowitz et al (2000) tell us that the purpose and representation of task analysis data isas diverse in their design as the methods and theories that support their development. While their research (Arnowitz et al. 2000) concentrates on the visual representation of the task analysis, it is necessary to understand what type of resource they provide and how they may be designed to be more useful to the participants involved in their creation and development. Therefore, central to facilitating the development, documentation and representation of various accounts of human activity through collaborative discussion and agreement, is identifying what type of information can be documented and how it can be visualized. There exist three types of visual tools that effectively represent and structure information. Hyerle (1996) defines these as 1) ‘brain storming webs’ for idea generation, 2) ‘task specific organizers’ for the order of operations and hierarchical structures, and 3) ‘thinking process maps’ for the comparison and connection of ideas. The significance of these tools lies in their ability to characterize knowledge in a form that facilitates the active generation, ordering, comparison and analysis of information in a collaborative environment. Specifically they enable the construction of individual human thought to be made explicit in dynamic forms for analysis (Hyerle 1996). While each tool presents a distinct purpose for its use, I propose that a combination of these tools can be used to visualise information, in an integrated form, and facilitate participatory task analysis workshops. If used effectively a visual schematic that utilizes components of task specific organizers and thinking process maps can provide a line of reasoning that makes design decisions explicit. Through collaborative discussion and mutual understanding an argument for specific modes of interaction and design artifacts, can be made. In doing so, this requires a participant to act as informant and collaborator in the early modelling of unstructured tasks and as analyst in the development and rationale of design outcomes. The task analysis schematic below illustrates this framework. During a participatory task analysis workshop participant’s work together to collaboratively construct a task analysis schematic. To begin, a functional requirement (labelled R) is defined and then associated with a specific user goal (labelled G). Various user tasks (labelled T) that accomplish this goal are then created in order to define their utility and relevance to the goal. Documenting this information on a whiteboard enables participants to openly contribute to and develop alternative tasks as a group. Once documented this enables collaborative discussion and comparative analysis between the various task descriptions to develop. The outcomes of these discussions are supported by the documentation of arguments for or against their use. This is achieved by visually connecting a description of the various claims made, to the appropriate task under examination. Finally, to determine the underlying rational for the creation of design artifacts (labelled D) it is necessary to subject these claims to further analysis. As a group the participants assess the claims made for each task and then rank their significance as criteria for the development of design artifacts. The outcomes of which become the underlying rationale for the design of interface artifacts for implementation in the proposed prototype application LabanAssist. DiscussionThis research offers an alternative approach to the design and representation of taskanalysis data for the development of interactive systems, with and for novice users of Labanotation. Outcomes of this research have the potential to enhance design thinking and enable the knowledge of mutual design decisions to be made explicit in a collaborative environment. The development of visual schematics in the suggested form, have the potential to enhance the communication of design alternatives and solutions to inform the effective design of interface artifacts. Furthermore, it is envisaged that utilizing a combination of visual tools that subscribe to techniques of task specific organizers and thinking process maps (Hyerle 1996), to facilitate the collaborative diagnosis of design problems and solutions, will be beneficial to the fields of participatory and interaction design. ReferencesArnowitz, J, Fijma, D & Verlinden, J 2000, 'Communicating a task analysis with task layer maps'Proceedings of the conference on Designing interactive systems: processes, practices, methods, and techniques, New York City, New York, United States, ACM Press Calvert, T, Fox, I, Ryman, R & Wilke, L 2005, 'Applications of Computers to Dance,' IEEE Computer Graphics and Applications, vol. 25, no. 2, pp. 6-12. Carroll, J M 2006, 'Dimensions of Participation in Simon's Design,' Design Issues, vol. 22, pp. 3-18. Hyerle, D 1996, Visual tools for constructing knowledge, Association for Supervision and Curriculum Development, Alexandria, Va. Last modified 18 February 2008 at 9:57 pm by haleden |