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Purpose: To focus on the systems thinking and work process knowledge aspects of mathematics.
References: 9, 57
In a global knowledge economy which values the relationship between people’s skills, their culture (values & norms) and their processes, team work, communication, continuous learning at both the organisational and the individual level are sought, together with the competency of information literacy. In a society of information ‘glut’, the ability to detect ‘signal’ from ‘noise’ will become increasingly valued. Systems thinking is context-oriented and context-dependent. (NBEET/ESC, 1996).
- Does the program content develop and enhance the competencies of systems thinking?
Does it address:
- the ability to see parts/wholes in relationship to each other and to work dialectically with the relationship to clarify both similarities and differences? [In effect, this means the ability to balance the processes of both analysis and synthesis.]
- the ability to abstract complexity so that organising structures (visual, mathematical, conceptual) are revealed rather than imposed?
- the ability to balance flexibility and real world change against the conceptual need for stable system boundaries and parameters?
- the command of multiple methods for problem solving as opposed to employing a limited range of algorithms to the widest variety of situations?
- an awareness that the map is not the territory, and the ability to act accordingly in the use of systems models?
- In relation to mathematics and information technology:
- Does the program content combine information collection and analysis and management skills and systems thinking and meta-cognition skills with the ability to use information technology to express and enhance those skills?
- Does it include the decoding of information presented in a variety of forms ¾ written, statistical, graphic, together with critical evaluation of that information?
Work process knowledge is a synthesis of theoretical and experiential knowledge. While codified knowledge in the form of theory or written procedures [e.g., mathematics in this case] might not be sufficient to guide action by itself, when it is synthesized with personal knowledge of the work situation the resulting construction — work process knowledge — allows people to make sufficient sense of the situation to enable them to act. (Boreham, 2003, pp. 214-215)
- Does the program address work process knowledge which is constructed by employees while they are engaged in work, particularly when they are solving problems?
- Does it provide apprentices/workers with the intellectual resources relevant to their envisaged role as the creators, not just the users, of the kinds of knowledge that enable engagement in continuous improvement?
- Could it include, for example, mathematical models of work processes such as labour sequence graphs, formal models of production processes, and mathematical techniques for planning and organising flexible manufacturing
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