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Developing a Ways of Thinking Framework for Engineering Education Research Cover

Developing a Ways of Thinking Framework for Engineering Education Research

Open Access
|Feb 2021

Figures & Tables

Table 1

Compilation of concepts, abilities, and developmental approaches for the four ways of thinking within FAWTEER.

ThinkingConceptsAbilities developed as part of each way of thinkingEnhancement approaches
Futures thinking
  • Time including: a) short and long term, b) past, present, and future temporal phases, c) states, and d) continuity

  • Uncertainty

  • Disruption

  • Probability

  • Plausibility

  • Desirability

  • Scenario building

  • Participatory workshops focused on anticipatory approaches

  • Delphi studies focused on envisioning engineering education

  • Trend analysis using statistical and simulation models

Values thinking
  • Justice

  • Fairness

  • Reflexivity

  • Responsibility

  • Inclusion

  • Ethics

  • Assessing a problem and its context comprehensively within and across cultures (Warren et al., 2014)

  • Discussing how decisions can be made, not which decisions are the correct ones (Vesilind, 1991)

  • Collaborating with stakeholders when designing a solution to consider positive and negative aspects of the solution from a variety of perspectives (Veugelers, 2000)

  • Recognizing cultural norms, including conscious and unconscious statements of values (Vesilind, 1991)

  • Recognizing micro-inequities in the system that contribute to the “non-inclusive” groups’ experience (McKenna et al., 2018)

  • Value-oriented assessment methods

  • Life-cycle analysis used in sustainability research

  • Immersing in the community of practice to strengthen inclusive approaches

  • Participatory approaches of consensus building

Systems thinking
  • Sub-systems

  • Non-linearity

  • Feedback loops

  • Constraints

  • Cascading effects

  • Multiple domains of society, including environment, economy, technology, etc.

  • Assessing system complexity across different domains (e.g. society, environment, economy) and across different scales from local to global (Kellam et al, 2008; Wiek et al., 2011)

  • Considering cascading effects and feedback loops among system elements (Warren et al., 2014)

  • Seeing true causes of the problem that are further in time or space and may originate from different parts of the system (Nehdi & Rehan, 2007)

  • Uncovering different knowledge systems through which a problem in a particular territory can be perceived and then exploring different parameters and measurements that could be applied (Godfrey et al., 2014)

  • Conceptualizing a situation in a bigger context and articulating problems in new and different ways (Stroh, 2018)

  • Recognizing that there are no perfect solutions and that the choices made will have an impact on other parts of the system (Meadows, 2008)

  • Social network analysis

  • Mapping out systems and subsystems, modeling different components, and denoting flows in particular directions

  • Causal chain analysis

Strategic thinking
  • Action planning

  • Viability

  • Feasibility

  • Efficiency

  • Effectiveness

  • Intentionality

  • Alliances

  • Adaptation

  • Flexibility

  • Planning methodologies

  • Workshops focused on game theory, behavioral change, and decision support methodologies

  • Participatory approaches to collectively define criteria, critical success factors, and action items

DOI: https://doi.org/10.21061/see.38 | Journal eISSN: 2690-5450
Language: English
Page range: 108 - 125
Submitted on: Jan 29, 2020
Accepted on: Sep 23, 2020
Published on: Feb 18, 2021
Published by: Virginia Tech Publishing
In partnership with: Paradigm Publishing Services

© 2021 Medha Dalal, Adam Carberry, Leanna Archambault, published by Virginia Tech Publishing
This work is licensed under the Creative Commons Attribution 4.0 License.