ARTICULATION DOCUMENT T343 – Humanist Computing MODULE STRUCTURE Module Category: Specialisation Level (year of study): Year 3 Credit Units: 4 Modular Credits Curriculum Hours: 90 Contact Hours: 60 over 15 weeks (4 hours per week) Module Assessment: Continuous Assessment: 50% - 15 Daily Grades Summative Assessment: 50% Understanding Test 1: 15% (online) Understanding Test 2: 15% (online) Understanding Test 3: 30% (online) SECTION 2: MODULE OVERVIEW Humanist computing is a methodology inspired by observations of human perceptions and behaviours. The general principle is that humans are good at solving problems, summarising information and making decisions with incomplete information. It seems natural therefore that when we are faced with the problem of building artificial systems to perform similar tasks we take some inspiration from the observation of humans. School of Technology for the Arts, Republic Polytechnic T343 Humanist Computing Page 1 Humanist computing, according to Dr Jonathan Rossiter, research-fellow at the Department of Engineering Mathematics, University of Bristol, is a methodology inspired by observations of human perceptions and behaviours. The principle is that artificial systems can be modelled on certain human cognitive behaviour such as solving problems, dealing with ambiguity and summarizing information. As Traub and Lipkin state in their essay Digital Humanism, “the computer only has value as it enhances that which makes us human... Our humanity likes in our ability to transmit from one to another, allowing others to gain access to successful formulations and articulations that further our notion of being.” MODULE OUTCOMES AND LEARNING OUTCOMES Listed below are the principles on which the module objectives are based: Information Theory How information is processed; how it flows and the different ways in which it can be represented. Network The connections between people and systems. Mapping Highlighting and visually representing the relationships between elements Ecology Interdependency of systems and the connections; the relationship of a design in a system. Perception How humans make sense of stimuli. Interfacing The communication between people and systems. Applications of skills learnt in Humanist Computing: Designing of intuitive interfaces Information architecture Instructional design Information design School of Technology for the Arts, Republic Polytechnic T343 Humanist Computing Page 2 Allocated time per day Module Coverage Discussions in Study Cluster Principles: a) Information Theory b) Network c) Mapping d) Ecology e) Perception f) Interfacing Application: a) Designing of intuitive interfaces b) Information architecture c) Instructional design d) Information design Total = 15 Problems = 90 hours Resource gathering and team work Skills acquisition and practice 20 20 42 8 40 42 8 TEACHING AND LEARNING The module is predominantly delivered via a problem based learning style curriculum. However, up to 15% of the module uses a technical hands-on tutorials style curriculum. The module is predominantly taught in a classroom and also involves field trip and a mini project with a simulated industry client. LEARNING RESOURCES References Rossiter, J.M (2003). Humanist Computing: Modelling with Words, Concepts, and Behaviours. In Jonathan Lawry, James G. Shanahan, Anca L. Ralescu (Eds.), Modelling with Words (pp. 124–152). Springer-Verlag Berlin Heidelberg. Traub, C.H & Lipkin, J. Digital Humanism, Education of an E-Designer, 2001 School of Technology for the Arts, Republic Polytechnic T343 Humanist Computing Page 3 Bibliography Buxton, W. (2007). Sketching user experiences: Getting the design right and the right design. Amsterdam: Elsevier/Morgan Kaufmann. De Souza, C. S. (2005). The semiotic engineering of human-computer interaction. Acting with technology. Cambridge, Mass: MIT Press. Doctorow, C. (2007). Overclocked: Stories of the future present. Norwalk, Conn: Easton Press. Dolin, P. A. (2006). Exploring digital workflow. Design exploration series. Clifton Park, NY: Thomson Delmar Learning. Dunne, A. (2005). 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