Transdisciplinary Learning for Sustainable Development: Experience in Course and Curriculum Design

Page 62

Transdisciplinary ­Learning for Sustainable Development Sharing Experience in Course and Curriculum Design

3.5

Using the Action Competence Model for Planning

As mentioned before, the key is to be as specific as possible when formulating competences that are relevant to SD. Ideally, the path leads from the abstract to the tangible, as we will demonstrate using the term “systems thinking”. Social-ecological systems research in SD (Chapter 1.3) teaches us that different elements (or subsystems) are interconnected in various ways. This means that we are not dealing with simple, linear, cause–effect relationships, but rather with a network, or system, of multiple interrelationships. One of the preconditions to handle such complexity is commonly referred to as “systems thinking”. Who would not want learners to be able to think in terms of systems? But what does that mean in practice? It is easy to find typical situations in SD that require systems thinking. This brings us to situational learning or situations as starting points (Chapter 3.1.3). Starting from a typical situation, we can determine what module competences are necessary to master this particular situation. This, in turn, will enable us to specify what intrapersonal resources are needed. On a more tangible level, we can now formulate appropriate learning outcomes for each of the three competence areas (professional competence, social competence, and personal competence). And at the end, the assessment criteria must correspond to the intended learning outcomes. For the sake of clarity, in the example below we focus on systems thinking and do not include statements for all potential intrapersonal resources. In this example we decided that systems thinking must relate to the integration of the three dimensions of sustainability – environmental, social, economic – and that this must be visible, like a thread weaving through all steps of the course procedure, from information collection to problem analysis, identification of solutions, and potential effects and side-effects. What exactly is “systems thinking”? The following situation is our starting point (SSP): After graduation, students must be in a position to carry out – as a team – an overall survey and assessment of the sustainability of, for example, different farming systems that strive to implement sustainable agriculture. Module competence

• Integrate environmental, social, and economic dimensions into an overall conceptual framework • Master natural, social, and economic survey methods • Assess the sustainability of farming systems holistically • …

Intrapersonal resources

• “Systems knowledge”: know about environmental, social, and economic ­dimensions of farming • “Skills”: be able to determine selected parameters in all three dimensions ­ (methods) • “Critical awareness”: consider different environmental, social, and economic ­perspectives, attitudes, and values (interdisciplinarity) • …

Learning outcomes

“Professional competence”: determine connections of environmental, social, and • economic factors of influence on sustainability of farms “Social competence”: exchange results and write a group report that deals with • the dimensions of sustainability in a holistic way, within the given time and length • “ Personal competence”: consider own knowledge gaps in each of the dimensions of sustainability • …

Assessment criteria

The report (poster, presentation, etc.) contains a … • … problem analysis in the form of a network analysis embracing ecological, social, and economic dimensions of sustainability • … potential effects and side-effects of solutions on farmers in all sustainability dimensions • …

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Figure 21: Positioning a “session” in the ideal-typical study programme architecture

20min
pages 91-100

Figure 20: Kolb’s learning cycle (experiential learning theory

1hr
pages 67-90

Table 4: Matrix for action competence-based planning, based on seven guiding questions

8min
pages 62-65

Figure 16: Formative and summative assessment of gains in competence

2min
page 57

Figure 18: Efforts to continuously improve the quality of teaching–learning arrangements by combining external and self-appraisal, assessment, and evaluation

2min
page 61

Figure 17: A range of assessment formats

5min
pages 58-60

Figure 15: Zone of proximal development

14min
pages 52-56

Table 2: Framework for defining competences for the example “Paperless study”

8min
pages 48-50

Figure 12: Types of knowledge

1min
page 45

Figure 10: Analysis raster to determine potential links between a scientific discipline and SD

9min
pages 40-43

Figure 11: The traditional triad of essential areas of development in holistic education and training programmes

2min
page 44

Figure 6: Conformative, reformative, and transformative learning

28min
pages 25-36

Figure 4: Transdisciplinary research is knowledge co-production

7min
pages 20-22

Figure 3: A social-ecological system (SES

3min
pages 18-19

Figure 2: The combination of Human Development Index and Ecological Footprint

5min
pages 15-17

Figure 5: Steps of integrating sustainable development into tertiary education

4min
pages 23-24

Figure 1: Selected socio-economic and earth system trends since 1750 (Industrial Revolution

3min
pages 13-14
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Transdisciplinary Learning for Sustainable Development: Experience in Course and Curriculum Design by Centre for Development and Environment (CDE) - Issuu