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Teaching-learning environments and student learning in electronic engineering

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Title: Teaching-learning environments and student learning in electronic engineering


1
Designing teaching-learning environments to
promote disciplinary ways of thinking
Noel Entwistle University of Edinburgh Project
web site www.ed.ac.uk/etl
2
Troublesome knowledge
  • Ritual knowledge - names and dates are rote
    learned
  • Inert knowledge that the student does not often
    use
  • Conceptually difficult knowledge
  • such as complex technical knowledge or ideas
    affected by mistaken expectations derived from
    everyday experience
  • Alien knowledge/Threshold Concepts
  • e.g., presentism in history
  • Tacit knowledge - acted on but not conscious of.
  • Perkins (in press)

3
Threshold conceptsin economics
  • A threshold concept can be considered as akin
    to a portal,
  • opening up a new and previously inaccessible
    way of thinking
  • about something. It represents a transformed
    way of
  • understanding or viewing something without
    which the learner
  • cannot progress.
  • For example, if opportunity cost is
    accepted by students as a
  • valid way of interpreting the world, it
    fundamentally changes their
  • way of thinking about their own choices, as
    well as serving as a
  • tool to interpret the choices made by others.
  • Meyer Land (2003)

4
Characteristics of Threshold Concepts - The
Jewels in the Curriculum
Transformative ontological as well as conceptual
shift Usually irreversible, therefore retained
once you see in a different way Often
integrative highlights previously hidden
interconnections Bounded by discipline and should
be treated as provisional/explanatory Likely to
involve troublesome knowledge, reverses intuitive
understanding emotional component of letting go
and tolerating confusion Requires teachers to
gaze backwards across threshold listen to
students to gauge mis/alternate conceptions
5
  • Other examples of Threshold Concepts
  • Statistics example earlier
  • Historical Thinking example
  • handouts
  • your examples?

6
Delayed understandingTerm introduced by Scheja,
in press
  • In second year I got a better understanding of
    what I learnt in first
  • year. Now in third year Ive kind of learnt what
    I was supposed to
  • know in second year. Its a shame that Ive
    never felt that Ive learned
  • it in the actual year it was taught
  • When youre being taught something, youre just
    desperately trying to
  • learn it, and theres not necessarily a whole
    lot of interest. Youre
  • scrambling back to notes in preparing for the
    exams, trying to
  • understand the course. And at some point during
    the learning
  • process, you do get interested and then things
    start to fall into place

7
Reaction to the lack of understanding
  • You have to focus your energy where its
    rewarded You work
  • through the problems and for the analogue ones,
    you dont get
  • any answers out of them.
  • You cant see how in the world you got from
    point a to point b.
  • I tended to work blindly. I knew if I just
    followed these steps, then
  • I could get an answer, but have no idea what to
    do and yet we
  • scrape by.
  • We probably would have got great marks had we
    actually
  • understood what we were doing.

8
Ways of thinking and practising in the subject
(WTP)
  • During most of the interviews, staff seemed to be
    more comfortable to talk about what we came to
    see as the ways of thinking and practising in the
    subject, rather than about the formally defined
    intended learning objectives
  • Ways of thinking and practising in the subject
    describe the richness, depth and breadth of what
    students might learn through engagement with a
    given subject area in a specific context. This
    might include coming to terms with particular
    understandings, forms of discourse, values or
    ways of acting which are regarded as central to
    graduate-level mastery of a discipline or subject
    area
  • McCune Hounsell (2005)

9
Ways of thinking in economics
  • More recently I've come round to the view that
    economists have
  • acquired a way of looking at the world which is
    indelible, and even
  • though they may not find themselves in a
    position where they can
  • use their analytical techniques very
    consciously, in fact their
  • whole way of treating questions is affected by
    this kind of training.
  • quoted in Entwistle (1997)

10
.Discussion of ways of designing TLEs to
promote disciplinary ways of thinking
  • Select a particular topic area from your own
    experience.
  • What are the main ways of thinking and practising
    that you would want students to acquire? A
    starting point could be thinking about what is
    involved in adopting a deep approach in that
    subject area.
  • Is it possible to discern an inner logic which
    makes certain forms of teaching essential if
    students are to learn easily and effectively?
  • How are these forms of teaching currently being
    provided? To what extent do these appear to be
    congruent with the WTPs?
  • What aspects of knowledge prove troublesome for
    students? Could these difficulties be discussed
    more explicitly with students? Would it be
    possible to spend more time on these aspects and
    check that understanding before moving on?

11
Session 4 exploration of this fascinating topic
stops hereread on if you wish!
12
Throughlines to keep the focus on understanding
  • Throughlines reflect what teachers believe is
    most important
  • for the students to learn in their course
    (WTPs)
  • These goals are set out clearly and revisited
    regularly during
  • the course to keep the students focused on the
    understanding
  • aims decided for the course (i.e. aims with
    that focus).
  • Introduced as part of the Teaching for
    Understanding Framework
  • developed by the Harvard Graduate School of
    Education Project Zero.
  • (Wiske, 2003)

13
Ways of thinking and practising in analogue
electronics
  • Appreciating the overall function of a circuit
  • Recognising the crucial groups of components
  • Seeing how to set about analysing different
    circuits
  • Having the necessary analytic tools for
    solutions
  • Developing a memory bank of contrasting examples
  • Thinking intuitively in designing new circuits

14
The inner logic of teaching analogue Essential
teaching-learning emphases and activities
  • Circuits linked to real-life illustrations from
    industry
  • Main circuit components highlighted in diagrams
  • Ways of thinking about circuits exemplified
  • Ways of solving tutorial problems explained
  • Students work through sets of varied examples
  • Worked examples provided at the appropriate time
  • Progress monitored in tutorial work and tests

15
Supporting student learning in analogue
  • Conclusions emerging from work on electronic
    engineering
  • The WTPs suggest an inner logic to the subject
    area and its
  • pedagogy - certain teaching-learning emphases
    and activities
  • are essential.
  • But these aspects of the teaching-learning
    environment are
  • currently offered in ways which may not suit
    even a majority of
  • students. The detailed feedback from students
    provided
  • suggestions about how all the elements might be
    enhanced.
  • The general literature on teaching and learning
    in higher
  • education also suggested other possibilities
    that could be
  • adapted to the pedagogy of electronic
    engineering

16
Overall findings from the ETL project
  • Generic pedagogic principles and methods need to
    be reinterpreted in terms of the inner logic of
    the subject
  • Conceptually-based feedback from students can be
    used to enhance the congruence of
    teaching-learning environments
  • Emphasising WTPs (rather than intended learning
    outcomes) have advantages in broadening the
    students focus in studying
  • Students are finding that a lack of detailed,
    prompt and intelligible feedback is affecting
    their learning
  • In large first-year classes, problems are being
    created by a lack of uniform practices and of
    shared information among teaching staff and
    tutors

17
Ways of thinking in history
  • Seeing history as being socially constructed and
    contested
  • Interpreting, synthesising and evaluating
    historical evidence
  • Placing events and topics within broader
    historical contexts
  • Alertness to interconnections among phenomena
  • Being sensitive to the strangeness of the past
  • Viewing events from different perspectives

18
Enhancing TLEs in history
  • Refining and reinforcing thematic structures of
    modules by reducing the emphasis on chronology or
    reducing the time period
  • Sharing more explicitly with students and other
    staff the reasoning behind module structures and
    links with overall WTPs
  • Providing students with more detailed
    discipline-specific guidance on the specific
    skills required to read documents and analyse
    evidence
  • Making more materials available through virtual
    learning environments
  • Modelling explicitly in lectures and tutorials
    how historians go about marshalling evidence to
    support or contest different lines of argument
  • Providing supportive tutorial environments to
    provide intellectual challenge without personal
    threat

19
Ways of thinking in economics
  • Using theoretical abstractions to think about the
    real world
  • Understanding economic concepts and models
  • Using deductive and inductive reasoning to
    analyse situations
  • Interpreting econometric results from statistics
    and graphs
  • Interpreting empirical evidence and understanding
    the relationship between theory and data
  • Developing awareness of interconnections between
    concepts in making sense of the wider picture of
    real-world economics

20
Enhancing TLEs in economics
  • Considering ways of coping with the diversity of
    student intakes in first- year classes
  • Putting greater emphasis on conceptual aspects of
    the subject and avoiding unnecessary reliance on
    the detailed analysis of evidence
  • Identifying threshold concepts, teaching them
    more intensively and ensuring that assessment
    emphasises rewards their understanding
  • Providing greater variety in students
    experiences of teaching and learning and in the
    assessment procedures adopted
  • Developing assessment procedures that encourage
    broader revision for exams while stressing the
    importance of problem solving
  • Trying to bridge the theory-real world divide
    more effectively by using more authentic
    problem-solving

21
Ways of thinking in biological sciences
  • Understanding the nature of evidence and how it
    is generated
  • Thinking critically about evidence and its
    interpretation
  • Using visualisation where appropriate and
    thinking systematically
  • Understanding relationships between findings and
    theory
  • Designing and carrying out small-scale research
    studies
  • Recognising that evidence is contested and
    theories provisional
  • Making interconnections between topics and seeing
    them in a real-world wider context

22
Enhancing TLEs in biological sciences
  • Providing fuller explanations about the reasons
    behind encouraging first-year students to develop
    some of the communication skills used by
    biologists in a assignment about explaining
    concepts to lay people
  • Encouraging better communication between
    lecturers and tutors on a first-year biological
    sciences course and trying to make the level of
    marking of coursework by tutors more consistent
  • Helping students to adjust to the epistemological
    and technical challenges encountered by a
    step-change in learning requirements between
    second-year and final year
  • Bringing in active researchers to contribute to a
    final year module so that students heard how the
    subject was progressing. Also working on actual
    data to develop research skills.
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