Review
of Learning
to
Think: Disciplinary Perspectives
by Janet Donald. Jossey-Bass, 2002.
By William
Peirce
Reprinted from Prince George's Community College Instructional
Forum, March 2005
Learning to Think:
Disciplinary Perspectives by Janet Donald is a necessary and
fascinating
book for anyone teaching in one of the disciplines (or a related
discipline)
discussed—well worth the $39 from Jossey-Bass (http://www.jbp.com) even though
you read only the chapter for your discipline. Chapter 1 describes the
methodology used to study the aims, methods, and thinking practices of
eight
disciplines. Chapter 9 closes the book with strategies for helping
students
develop intellectually. Chapters 2 - 8 examine in nine major
disciplines how
professors want students to think, how students actually think, the
difficulties students encounter in thinking, and the approaches likely
to
promote student learning. Based on 25 years of research, the book
reports
professors' and students' perceptions of the kind of thinking needed in
the
discipline (they differ), how student thinking develops in various
disciplines,
and what practices hinder or help that development. Donald and her
associates
investigated four-year undergraduate institutions in the U.
S., Canada,
and Australia;
two-year colleges were not included.
Eight Disciplines Selected for Study
The eight disciplines were chosen because the represent a
variety of characteristics. Donald describes them as follows:
- Physics.
Prototypical, hard, pure, nonlife,
paradigmatic discipline
- Engineering.
Hard, applied, concrete, nonlife discipline
- Chemistry,
biological sciences. Pure, nonlife,
life disciplines
- Psychology.
Range of hard to soft subareas;
range of pure to applied; life, young discipline
- Law.
Socratic, ancient discipline
- Education.
Comprehensive, applied,
metadiscipline
- English literature.
Interpretive, divergent,
critical discipline (p. 29)
Modes of Inquiry Used by Disciplines
In general, Donald finds these methods and modes of inquiry
across disciplines:
- Hermeneutics: construction of textual
meanings (English literature)
- Critical thinking: examining
assumptions and seeking evidence (English literature)
- Problem solving: includes critical
thinking and also implementation and testing (physics, engineering)
- Scientific method: "universal
standards for knowledge claims, common ownership of information,
disinterestedness and integrity in gathering and interpreting
information, and organized skepticism" (p. 24) (the hard sciences)
- Examine expertise: Rely on experts who
"have a sense of the context, select the appropriate information,
recognize organizing principles, and verify their inferences" (p. 25)
(physics, education, and English literature)
Six Thinking Process Used Across
Disciplines
What these highly different methods of inquiry have in
common is six thinking processes that Donald observes in all eight
disciplines:
- Description: of context, conditions,
facts, functions, assumptions, and goals
- Selection: of relevant information and
critical elements
- Representation: organizing,
illustrating, and modifying elements and relations
- Inference: drawing conclusions,
forming propositions
- Synthesis: composing wholes from
parts, filling gaps, developing course of action
- Verification: confirming accuracy and
results, judging validity, using feedback
Donald's approach to disciplinary thinking
reinforces the
broad definition of thinking used in the Handbook
of Critical Thinking Resources for the PGCC Year of Critical
Thinking: "Critical
thinking is defined as good thinking needed by practitioners in the
discipline:
accurate, relevant, reasonable, rigorous—whether it be analyzing,
synthesizing,
generalizing, applying concepts, interpreting, analyzing, evaluating,
supporting arguments and hypotheses, solving problems, or making
decisions."
Donald emphasizes that improvements in how students think will come
from the
specific thinking processes needed in the discipline.
Seven Chapters on Specific
Disciplines
Sandwiched between the opening and closing general chapters
are seven specific chapters about thinking in eight disciplines
(chemistry and
biology are combined in one chapter). Each chapter uses the same basic
outline
to examine how students learn to think in those disciplines, where
students
have difficulty, and what is helpful to their learning:
The
disciplinary
context
Students'
experiences learning the discipline
(pointing out where professors' and students' perspectives
differ)
The
learning
task in the discipline
The development of
six thinking
processes in the discipline
Description
Selection
Representation
Inference
Synthesis
Verification
The
challenge of
instruction in the discipline, including the approach needed to learn
successfully
The
disciplinary
perspective
In chapter after chapter describing thinking in the
various
disciplines, one sees that students tend to take a surface approach to
learning, rather than using strategies that lead to deep learning.
Ironically,
it is often the professors' methods of teaching and assessing that
promote
students' use of surface learning study methods rather than strategies
that
promote deep learning.
What Can Be Done to Help
Students Think Better?
The concluding chapter, titled "Learning,
Understanding, and Meaning," compares the thinking and validation
processes across disciplines. According to Donald, "The different
validation
processes used in the disciplines show a trend in where authority
resides—from
the objective empirical to peers. In more structured disciplines [i.e.
physics,
engineering, chemistry, and biology], evidence is matched to theory.
Psychology
occupies a middle position, where empirical testing and interrater
reliability
are both used as proof. Further into the human sciences, proof rests in
evidence that will convince an authority in law, or test results in
education,
or in internal consistency rendering work plausible in English
literature"
(p. 282).
What can be done to helping students develop
intellectually
in their disciplines? Donald recommends employing strategies at three
levels:
institution, faculty, and students themselves.
The
institution can provide a supportive learning community
- "The primary reason for learning communities is that
they promote relationships and provide a psychologically manageable
environment" (p. 289).
- "Department colloquia in which members talk about their research
to others
- "brown bag lunches at which professors and students debate
important issues
- "research teams that include students in collaboration on
specific projects
- "first-year seminars that introduce students to the educational
context more generally" (p. 290)
- "Capstone courses, creating higher expectations, and enhancing
student satisfaction with the learning environment" (p. 290).
- Service learning
How
faculty can promote higher-order learning
- Explain the process of scholarly inquiry in the discipline
- Engage students in the process of scholarly inquiry in the
discipline
- Show how the discipline validates knowledge
- Show how the expert in the discipline functions
- Establish learning outcomes in individual courses, and include
higher order thinking outcomes
- Assess learning outcomes, including higher order thinking
outcomes (students learn according to how they are assessed)
- Don't grade on a curve
- Employ active learning strategies
- Use new media and technology in a realistic context
- Monitor where students are having trouble learning and provide
feedback
What students can do to become autonomous
and deep learners in their discipline
- Consciously adopt course learning outcomes as their learning goals
- Engage in active learning
- Use study strategies that promote deep learning
- Self-assess their own learning and study strategies
You can find other book reviews and helpful articles
for
accomplishing the strategies Donald recommends for faculty and students
at the
PGCC Reasoning Across the Curriculum web site.
These are described in the PGCC
annotated list of documents.
Back to the RAC/MCCCTR home page