Developing Critical Thinking Skills: A Scientific Study on the students of Higher Education in Odisha. 1. Introduction Much of what we remember and believe is simply wrong. Our brains seem to constantly generate false observations, memories, and beliefs and yet we tend to take the truth of our experiences for granted. The present study concentrates on the many ways in which our human brains deceive us and lead us to conclusions that have little to do with reality. One will also learn strategies that can be used to combat the mind’s many deceptions. This study explores what is called metacognition: thinking about thinking itself and attempts to cover the way we perceive the world around us. Everything we think we see, hear, and experience is not a direct recording of the outside world; instead, it is a construction. Information is altered, distorted, compared, and confabulated ultimately to be woven into a narrative which is our assumptions about the world. Our experiences and thoughts are also altered through our egos and the many emotional needs, humans constantly feed. Furthermore, everything we think and experience becomes a memory, which is further constructed, altered, and fused. We rely upon our memories as if they were accurate recordings of the past, but the evidence shows that we should be highly suspicious of even the most vivid and confident
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Developing Critical Thinking Skills: AScientific Study on the students of Higher
Education in Odisha.
1. Introduction
Much of what we remember and believe is simply wrong. Our brains
seem to constantly generate false observations, memories, and
beliefs and yet we tend to take the truth of our experiences for
granted. The present study concentrates on the many ways in which
our human brains deceive us and lead us to conclusions that have
little to do with reality. One will also learn strategies that
can be used to combat the mind’s many deceptions. This study
explores what is called metacognition: thinking about thinking
itself and attempts to cover the way we perceive the world
around us. Everything we think we see, hear, and experience is
not a direct recording of the outside world; instead, it is a
construction. Information is altered, distorted, compared, and
confabulated ultimately to be woven into a narrative which is our
assumptions about the world. Our experiences and thoughts are
also altered through our egos and the many emotional needs,
humans constantly feed. Furthermore, everything we think and
experience becomes a memory, which is further constructed,
altered, and fused. We rely upon our memories as if they were
accurate recordings of the past, but the evidence shows that we
should be highly suspicious of even the most vivid and confident
memories. We don’t recall memories as much as we reconstruct and
update them, altering the information every time we access it.
Our brains also filled in gaps by making up information as
needed. Additionally, a host of logical flaws and cognitive
biases plague our thinking, unless we are specifically aware of
and avoid those fallacies. In this study the researcher explores
logical fallacies and cognitive biases in detail, learning how
they affect thinking in often subtle ways, which are mental
shortcuts we tend to take in thinking. These shortcuts maybe
efficient in most circumstances, but they can also lead us
astray. Our brains have other interesting strengths and
weaknesses that can further inform our thinking. We are generally
very good at pattern recognition—so good that we often see
patterns that are not actually there. However, many of us are
inherently poor at probability and statistics, and this
innumeracy opens us up to deception and errors in thinking.
Perhaps our greatest weakness is our susceptibility to delusion,
the ability to hold a false belief against all evidence. Secondly
how our brains distort reality to discuss how you can
specifically use critical thinking skills and tools to combat the
deceptions of your mind. The philosophy and practice of critical
thinking and science are the tools that humans have slowly and
carefully nurtured over many millennia to compensate for the many
flaws in our brains.
Critical thinking includes the component skills of analyzing
arguments, making inferences using inductive or deductive
reasoning, judging or evaluating, and making decisions or solving
problems. Background knowledge is a necessary but not a sufficient
condition for enabling critical thought within a given subject.
Critical thinking involves both cognitive skills and dispositions.
These dispositions, which can be seen as attitudes or habits of
mind, include open- and fair-mindedness, inquisitiveness,
flexibility, a propensity to seek reason, a desire to be well-
informed, and a respect for and willingness to entertain diverse
viewpoints. There are both general- and domain-specific aspects of
critical thinking. Empirical research suggests that people begin
developing critical thinking competencies at a very young age.
Although adults often exhibit deficient reasoning, in theory all
people can be taught to think critically. Instructors are urged to
provide explicit instruction in critical thinking, to teach how to
transfer to new contexts, and to use cooperative or collaborative
learning methods and constructivist approaches that place students
at the center of the learning process. In constructing assessments
of critical thinking, educators should use open-ended tasks, real-
world or “authentic” problem contexts, and ill-structured problems
that require students to go beyond recalling or restating
previously learned information. Such tasks should have more than
one defensible solution and embed adequate collateral materials to
support multiple perspectives. Finally, such assessment tasks
should make student reasoning visible by requiring students to
provide evidence or logical arguments in support of judgments,
choices, claims, or assertions.
The research encounters many examples of pseudoscience in which
various attempts at new discoveries went wrong. The scientific
blunders also discuss great scientific mistakes in history and
the lessons that can be learned from them. The research attempts
to apply critical thinking, knowledge of science, and knowledge
of the mechanisms of self-deception to everyday practice. Then,
one will discover the role of science and critical thinking in
democracy, the need for high-quality science education, and how
to skeptically approach the media and will partly be a primer on
how not to get scammed or fooled. By the end of the study, one
will have a thorough understanding of what constitutes critical
thinking and why we all so desperately need it. Left to our own
devices—what psychologists call the default mode of human
thinking—we will be subject to the vagaries of perception and
memory and slaves to our emotional needs and biases. The skills
taught in this study will help one operate on the metacognitive
level so that one is able to think about the process of one’s
own thinking.
The human brain is the universal tool by which we understand our
selves and the universe in which we live. By understanding the
nature of human cognition and the methods of thinking clearly and
critically, we can avoid common errors and make the best use of
our minds. The research study focuses on metacognition, or
thinking about thinking itself, and it endeavors to give you the
skills of critical thinking. Developing critical thinking skills
is empowering and liberating and it is a defense mechanism
against the world that we live in.
1.1. Logic in Critical Thinking
Science and belief permeate our lives; they permeate our culture
and our civilization. We buy products every day that involve
claims—either explicit or implicit—and we need to be able to
evaluate those claims in order to make good purchasing decisions.
We use critical thinking in order to think about how we run our
civilization. We have to purchase health-care products and decide
what foods to eat and what lifestyle changes to make in order to
stay healthy. These claims are based upon evidence and logic, and
we need critical thinking to be able to evaluate them properly.
One of the premises of this study is that we are our brains. In
essence, the brain is an organ that can think and is self-aware.
It is not only the most complicated organ that we know about, but
it may in fact be the most complicated thing in the universe that
we know about. The brain can remember, feel, believe, calculate,
extrapolate, infer, and deduce. It does everything that we think
of as thinking. The brain is our universal tool and greatest
strength. Most people believe that our intelligence is our
greatest advantage over all the other creatures on this planet.
However, the brain is also strangely deceptive and is the root of
many of our flaws and weaknesses. This course will also explore
human nature. Humans possess logic, but we are not inherently
logical creatures. In addition to being logical, we are also
highly emotional creatures; we tend to follow our evolved
emotions and rationalizations. Our thoughts tend to follow a
pathway of least resistance, which is not always the optimal
pathway. Logic and critical thinking are, therefore, learned
skills. While we have some inherent sense of logic, we are
overwhelmingly emotional creatures. We have the capacity for
logic, but logic and critical thinking are skills. We’re not born
as master critical thinkers that need to be developed and
practiced.
1.2. Flaws in Human Thinking
Delusion:
It is a fixed, false belief that is vigorously held even in the
face of overwhelming contradictory evidence.
Heuristic:
A cognitive rule of thumb or mental shortcut that we
subconsciously make that may be true much of the time but is not
logically valid.
Logic:
It is a formal process or principle of reasoning.
Metacognition:
Thinking about thinking; examining the processes by which we
think about and arrive at our own beliefs.
Methodological naturalism:
These are the philosophical assumptions that underlie scientific
methodology; specifically, the assumption that all effects have
natural causes.
Pseudoscience:
It is a practice that superficially resembles the process of
science but distorts proper methodology to the point that it is
fatally flawed and does not qualify as true science.
Scientific skepticism:
It is a comprehensive approach to knowledge that emphasizes
critical thinking and science. Skepticism combines knowledge of
philosophy of science, scientific methods, mechanisms of self
deception, and related fields to approach all claims to truth in
a provisional and systematic way.
The inherent tendency of humans is to make many errors in
thinking. One example is flaws in logic, which are called logical
fallacies, in which we tend to make logical connections that are
not valid, or real. Our thinking is also plagued with many false
assumptions. Our heads are filled with knowledge that we think is
true but is, in fact, false. Either these bits of knowledge are
simply wrong, or that fall short of the truth. Our memories are
also massively flawed. We tend to naively assume that our
memories are an accurate, passive recorder of what has happened,
but our memories are actually plagued with numerous flaws that
make them highly unreliable. In psychology, heuristics are
patterns of thinking. They’re mental shortcuts that we tend to
take that may be right much of the time but are wrong often
enough that they quite frequently lead us astray. We compensate
for all of these flaws in our brain’s functioning by using
metacognition, or thinking about thinking itself. A process
called scientific skepticism involves systematic doubt—
questioning everything that you think, the process of your
thinking, and everything that you think you know.
1.3. The Necessity of Thinking about Thinking One component of critical thinking is basing your beliefs on
actual evidence as opposed to wishful thinking, for example. The
goal is to arrive at conclusions that are likely to be reliable
as opposed to conclusions that are unreliable, but we also want
to have a sense of how reliable our conclusions are. The
scientific method is scientific skepticism—not just doubt, but a
positive set of methods for examining reality. Essentially,
science is a systematic way of comparing our ideas to external,
objective data. In short, the goal of science is to lead us to
conclusions that are actually true as opposed to conclusions that
we simply wish are true. However, not all science is valid. Some
science is so flawed that we call it pseudo science. Science
follows scientific methodology. It is not a set of beliefs, but
it is a set of methods, and there are ways of defining that as
well as distinguishing good science from bad science. The
scientific method is based upon methodological naturalism, which
is the philosophical term for the notion that natural effects
have natural causes. In trying to model and understand the world,
you cannot refer to supernatural or miraculous causes that don’t
have any testable cause in the natural world. All conclusions in
science are provisional; there is no such thing as absolute
metaphysical certitude. Not only do we have to assess what is
likely to be true but also how confident we can be about that
belief, knowing that we’ll never quite reach absolute certainty.
All of our beliefs are open to revision. When new data comes in,
or may be just a better way of interpreting data, we have to be
open to revising what we thought we knew. Human beings are
subject to delusions. Sometimes our thinking goes so far a way
that we can invent our own reality or become swept up in the
beliefs of others. One common manifestation of this is a public
panic. It’s helpful to consider thinking as a process and to
focus on the process rather than on any particular conclusion.
Once we emotionally invest in a conclusion, humans are very good
at twisting and rationalizing facts and logic in order to fit
that desired conclusion. Instead, we should invest in the process
and be very flexible when it comes to any conclusions. In
addition, we are currently living not only in the age of
information with the Internet, but we are living in the age of
misinformation. There are many rumors that now spread faster than
wildfire; they spread with the speed of electrons through the
Internet. Whether they’re innocent or malicious, myths are spread
through the Internet in order for the people behind the myths to
try to steal other people’s money, lure them into a scam, or even
influence their voting. We live in a capitalistic society, which
means that every day we’re subject to marketing claims that are
highly motivated to misrepresent the facts or to give us a very
specific perspective. Such claims try to influence our thoughts
and behavior by engaging in persuasive speech and maybe even
deception. As consumers, every day we have to sort through
deliberately deceptive claims to figure out which ones are
reliable and which ones aren’t. Furthermore, many companies use
pseudo science or even antiscientific claims to back up their
marketing and products, and that can seem very persuasive to
someone who isn’t skilled in telling real science from
pseudoscience.
Thinking critically is a process, and the first component is to
examine all of the facts that we are assuming or that we think
are true. Many of them may not be reliable, or they may be
assumptions. We may not know whether they’re true, but reassume
they’re true. We also need to examine our logic. Is the logic we
are using legitimate, or is it flawed in some way? Perhaps it’s
systematically biased in a certain direction. In addition, we
should try to become aware of our motivations. People are
extremely good at rationalizing beliefs when they are motivated
by a desire to believe a certain conclusion. Understanding our
motivations will help us to deconstruct that process and will
give us the skills to discover conclusions that are more likely
to be true, as opposed to the ones that you just wish to be true.
Critical thinking also means thinking through the implications of
a belief—that different beliefs about the world should all be
compatible with each other. We have a tendency to
compartmentalize, to have one belief walled off from all of our
other beliefs, and therefore we insulate it from refutation. If
we think about what else has to be true if a certain belief is
true and whether both make sense that is a good way to tell how
plausible or how likely to be true a belief is. Additionally, we
should check with others:
It’s also important to be humble, which means knowing your
limits. We tend to get into trouble when we assume we have
expertise or knowledge that we don’t have or when we don’t
question the limits of our knowledge. Critical thinking is, in
fact, a defense mechanism against all the machinations that are
trying to deceive us whether for ideological, political, or
marketing reasons. Critical thinking also liberates us being
weighed down by the many false beliefs, and perhaps mutually
incompatible beliefs that we tend to hold because of our
emotional makeup.
2. Rationale of the study
The study intends explore the ways in which critical thinking has
been defined by researchers and to investigate the development of
critical thinking skills. It also attempts to study how teachers
can encourage the development of critical thinking skills in their
students so as to review best practices in assessing critical
thinking skills.
3. Review of literature
Educators have long been aware of the importance of critical
thinking skills . More recently, the Partnership for 21st Century
Skills has identified critical thinking as one of several learning
and innovation skills necessary to prepare for education and the
workforce. In addition, the newly created Common Core State
Standards reflect critical thinking as a cross-disciplinary skill
vital for college and employment social life and politics. Despite
widespread recognition of its importance, there is a notable lack
of consensus regarding the definition of critical thinking.
The literature on critical thinking has roots in two primary
academic disciplines: philosophy and psychology (Lewis & Smith,
1993). Sternberg (1986) has also noted a third critical thinking
strand within the field of education. These separate academic
strands have developed different approaches to defining critical
thinking that reflect their respective concerns. Enumerating the
qualities and characteristics of this person rather than the
behaviors or actions the critical thinker can perform (Lewis &
Smith, 1993; Thayer-Bacon, 2000). Sternberg (1986) has noted that
this school of thought approaches the critical thinker as an ideal
type, focusing on what people are capable of doing under the best
of circumstances. Accordingly, Richard Paul (1992) discusses
critical thinking in the context of “perfections of thought”. This
preoccupation with the ideal critical thinker is evident in the
American Philosophical Association’s consensus portrait of the
ideal critical thinker as someone who is inquisitive in nature,
open-minded, flexible, fair-minded, has a desire to be well-
informed, understands diverse viewpoints, and is willing to both
suspend judgment and to consider other perspectives (Facione,
1990). Those working within the philosophical tradition also
emphasize qualities or standards of thought. For example, Bailin
(2002) defines critical thinking as thinking of a particular
quality—essentially good thinking that meets specified criteria or
standards of adequacy and accuracy. Further, the philosophical
approach has traditionally focused on the application of formal
rules of logic (Lewis & Smith, 1993; Sternberg, 1986). One
limitation of this approach to defining critical thinking is that
it does not always correspond to reality (Sternberg, 1986). By
emphasizing the ideal critical thinker and what people have the
capacity to do, this approach may have less to contribute to
discussions about how people actually think.
The cognitive psychological approach contrasts with the
philosophical perspective in two ways. First, cognitive
psychologists, particularly those immersed in the behaviorist
tradition and the experimental research paradigm, tend to focus on
how people actually think versus how they could or should think
under ideal conditions (Sternberg, 1986). Second, rather than
defining critical thinking by pointing to characteristics of the
ideal critical thinker or enumerating criteria or standards of
“good” thought, those working in cognitive psychology tend to
define critical thinking by the types of actions or behaviors
critical thinkers can do. Typically, this approach to defining
critical thinking includes a list of skills or procedures performed
by critical thinkers (Lewis & Smith, 1993).
Philosophers have often criticized this latter aspect of the
cognitive psychological approach as being reductionist—reducing a
complex orchestration of knowledge and skills into a collection of
disconnected steps or procedures (Sternberg, 1986). Bailin (2002)
argues that it is a fundamental misconception to view critical
thinking as a series of discrete steps or skills, and that this
misconception stems from the behaviorist’s need to define
constructs in ways that are directly observable. According to this
argument, because the actual process of thought is unobservable,
cognitive psychologists have tended to focus on the products of
such thought—behaviors or overt skills (e.g., analysis,
interpretation, formulating good questions). Other philosophers
have also cautioned against confusing the activity of critical
thinking with its component skills (Facione, 1990), arguing that
critical thinking is more than simply the sum of its parts (Van
Gelder, 2005). Indeed, a few proponents of the philosophical
tradition have pointed out that it is possible to simply “go
through the motions,” or proceed through the “steps” of critical
thinking without actually engaging in critical thought (Bailin,
2002). Those working in the field of education have also
participated in discussions about critical thinking. Benjamin Bloom
and his associates are included in this category. Their taxonomy
for information processing skills (1956) is one of the most widely
cited sources for educational practitioners when it comes to
teaching and assessing higher-order thinking skills. Bloom’s
taxonomy is hierarchical, with “comprehension” at the bottom and
“evaluation” at the top. The three highest levels (analysis,
synthesis, and evaluation) are frequently said to represent
critical thinking (Kennedy et al., 1991). The benefit of the
educational approach is that it is based on years of classroom
experience and observations of student learning, unlike both the
philosophical and the psychological traditions (Sternberg, 1986).
4. Objectives
1. To explore the ways in which critical thinking has been defined
by researchers,
2. To investigate how critical thinking develops
3. To study how teachers can encourage the development of critical
thinking skills in their students,
4. To review best practices in assessing critical thinking skills.
5. Methodology
This research uses a qualitative approach to investigation.
Survey research method is followed for conducting the study.
Secondary data is collected from the colleges and universities of
odisha. The study uses a large, nationally representative data
set, which enables the researcher to explore potential
heterogeneity in returns to critical thinking skills along
various dimensions by sex, age, education, social group and
geographic variables, using inductive or deductive reasoning,
judgment or evaluation.
6. Universe of the study
The study included randomly selected faculty from colleges and
universities across Odisha,. Faculty answered both closed and
open-ended questions in a 40-50 minute interview. By direct
statement or by implication, most faculties claimed that they
permeated their instruction with an emphasis on critical thinking
and that the students internalized the concepts in their courses
as a result. Yet only the rare interviewee mentioned the
importance of students thinking clearly, accurately, precisely,
relevantly, or logically, etc. Very few mentioned any of the
basic skills of thought such as the ability to clarify questions;
gather relevant data; reason to logical or valid conclusions;
identify key assumptions; trace significant implications, or
enter without distortion into alternative points of view.
Intellectual traits of mind, such as intellectual humility,
intellectual perseverance, intellectual responsibility, etc, were
rarely mentioned by the interviewees. Consider the following key
results from the study:
7. Analysis
The question at research in this paper is the current state of
critical thinking in higher education. Sadly, studies of higher
education demonstrate three disturbing facts: Most college
faculty at all levels lack a substantive concept of critical
thinking. Most college faculties don’t realize that they lack a
substantive concept of critical thinking, believe that they
sufficiently understand it, and assume they are already teaching
students it. Lecture, rote memorization, and (largely
ineffective) short-term study habits are still the norm in
college instruction and learning today.
These three facts, taken together, represent serious obstacles
to essential, long-term institutional change, for only when
administrative and faculty leaders grasp the nature,
implications, and power of a robust concept of critical thinking
as well as gain insight into the negative implications of its
absence are they able to orchestrate effective professional
development. When faculty have a vague notion of critical
thinking, or reduce it to a single-discipline model (as in
teaching critical thinking through a “logic” or a “study skills”
paradigm), it impedes their ability to identify ineffective, or
develop more effective, teaching practices. It prevents them from
making the essential connections (both within subjects and across
them), connections that give order and substance to teaching and
learning.
This paper highlights the depth of the problem and its solution a
comprehensive, substantive concept of critical thinking fostered
across the curriculum. As long as we rest content with a fuzzy
concept of critical thinking or an overly narrow one, we will not
be able to effectively teach for it. Consequently, students will
continue to leave our colleges without the intellectual skills
necessary for reasoning through complex issues.
The study demonstrates that most college faculties lack a
substantive concept of critical thinking. Consequently they do
not (and cannot) use it as a central organizer in the design of
instruction. It does not inform their conception of the student’s
role as learner. It does not affect how they conceptualize their
own role as instructors. They do not link it to the essential
thinking that defines the content they teach. They, therefore,
usually teach content separate from the thinking students need to
engage in if they are to take ownership of that content. They
teach history but not historical thinking. They teach biology,
but not biological thinking. They teach math, but not
mathematical thinking. They expect students to do analysis, but
have no clear idea of how to teach students the elements of that
analysis. They want students to use intellectual standards in
their thinking, but have no clear conception of what intellectual
standards they want their students to use or how to articulate
them. They are unable to describe the intellectual traits
(dispositions) presupposed for intellectual discipline. They have
no clear idea of the relation between critical thinking and
creativity, problem-solving, decision-making, or communication.
They do not understand the role that thinking plays in
understanding content. They are often unaware that didactic
teaching is ineffective. They don’t see why students fail to make
the basic concepts of the discipline their own. They lack
classroom teaching strategies that would enable students to
master content and become skilled learners.
Most faculties have these problems, yet with little awareness
that they do. The majority of college faculty considers their
teaching strategies just fine, no matter what the data reveal.
Whatever problems exist in their instruction they see as the
fault of students or beyond their control.
Research demonstrates that, contrary to popular faculty belief,
critical thinking is not fostered in the typical college
classroom. In a meta-analysis of the literature on teaching
effectiveness in higher education, Lion Gardiner, in conjunction
with ERIC Clearinghouse on Higher Education (1995) documented the
following disturbing patterns: “Faculty aspire to develop
students’ thinking skills, but research consistently shows that
in practice we tend to aim at facts and concepts in the
disciplines, at the lowest cognitive levels, rather than
development of intellect or values."
Numerous studies of college classrooms reveal that, rather than
actively involving our students in learning, we lecture, even
though lectures are not nearly as effective as other means for
developing cognitive skills. In addition, students may be
attending to lectures only about one-half of their time in class,
and retention from lectures is low. Studies suggest our methods
often fail to dislodge students’ misconceptions and ensure
learning of complex, abstract concepts. Capacity for problem
solving is limited by our use of inappropriately simple practice
exercises. Classroom tests often set the standard for students’
learning. As with instruction, however, we tend to emphasize
recall of memorized factual information rather than intellectual
challenge. Taken together with our preference for lecturing, our
tests may be reinforcing our students’ commonly fact-oriented
memory learning, of limited value to either them or society.
Faculties agree almost universally that the development of
students’ higher-order intellectual or cognitive abilities is the
most important educational task of colleges and universities.
These abilities underpin our students’ perceptions of the world
and the consequent decisions they make. Specifically, critical
thinking – the capacity to evaluate skillfully and fairly the
quality of evidence and detect error, hypocrisy, manipulation,
dissembling, and bias – is central to both personal success and
national needs. Process-oriented instructional orientations “have
long been more successful than conventional instruction in
fostering effective movement from concrete to formal reasoning.
Such programs emphasize students’ active involvement in learning
and cooperative work with other students and de-emphasize
lectures .
Gardiner’s summary of the research coincides with the results of
a large study (Paul, 1997) of 38 public colleges and
universities and 28 private ones focused on the question: To what
extent are faculty teaching for critical thinking?
8. Findings
Though the overwhelming majority of faculty claimed critical
thinking to be a primary objective of their instruction (89%),
only a small minority could give a clear explanation of what
critical thinking is (19%). Furthermore, according to their
answers, only 9% of the respondents were clearly teaching for
critical thinking on a typical day in class. Though the
overwhelming majority (78%) claimed that their students lacked
appropriate intellectual standards (to use in assessing their
thinking), and 73% considered that students learning to assess
their own work was of primary importance, only a very small
minority (8%) could enumerate any intellectual criteria or
standards they required of students or could give an intelligible
explanation of those criteria and standards. While 50% of those
interviewed said that they explicitly distinguish critical
thinking skills from traits, only 8% were able to provide a clear
conception of the critical thinking skills they thought were most
important for their students to develop. Furthermore, the
overwhelming majority (75%) provided either minimal or vague
allusion (33%) or no illusion at all (42%) to intellectual traits
of mind. Although the majority (67%) said that their concept of
critical thinking is largely explicit in their thinking, only 19%
could elaborate on their concept of thinking. Although the vast
majority (89%) stated that critical thinking was of primary
importance to their instruction, 77% of the respondents had
little, limited or no conception of how to reconcile content
coverage with the fostering of critical thinking. Although the
overwhelming majority (81%) felt that their department’s
graduates develop a good or high level of critical thinking
ability while in their program, only 20% said that their
departments had a shared approach to critical thinking, and only
9% were able to clearly articulate how they would assess the
extent to which a faculty member was or was not fostering
critical thinking. The remaining respondents had a limited
conception or no conception at all of how to do this.
9. Recommendations
If we understand critical thinking substantively, we not only
explain the idea explicitly to our students, but we use it to
give order and meaning to virtually everything we do as teachers
and learners. We use it to organize the design of instruction. It
informs how we conceptualize our students as learners. It
determines how we conceptualize our role as instructors. It
enables us to understand and explain the thinking that defines
the content we teach.When we understand critical thinking at a
deep level, we realize that we must teach content through
thinking, not content, and then thinking. We model the thinking
that students need to formulate if they are to take ownership of
the content. We teach history as historical thinking. We teach
biology as biological thinking. We teach math as mathematical
thinking. We expect students to analyze the thinking that is the
content, and then to assess the thinking using intellectual
standards. We foster the intellectual traits (dispositions)
essential to critical thinking. We teach students to use critical
thinking concepts as tools in entering into any system of
thought, into any subject or discipline. We teach students to
construct in their own minds the concepts that define the
discipline. We acquire an array of classroom strategies that
enable students to master content using their thinking and to
become skilled learners. The concept of critical thinking,
rightly understood, ties together much of what we need to
understand as teachers and learners. Properly understood, it
leads to a framework for institutional change If we truly
understand critical thinking, we should be able to explain its
implications:
for analyzing and assessing reasoning
for identifying strengths and weaknesses in thinking
for identifying obstacles to rational thought
for dealing with egocentrism and sociocentrism
for developing strategies that enable one to apply critical
thinking to everyday life
for understanding the stages of one’s development as a thinker
for understanding the foundations of ethical reasoning
for detecting bias and propaganda in the national and
international news
for conceptualizing the human mind as an instrument of
intellectual work
for active and cooperative learning
for the art of asking essential questions
for scientific thinking
for close reading and substantive writing
for grasping the logic of a discipline.
10. Summary and conclusion
Critical thinking is believed to include the component skills of
analyzing arguments, making inferences by using inductive or
deductive reasoning, judging or evaluating, and making decisions
or solving problems. Background knowledge is believed to be a
necessary, though not sufficient, condition for enabling
critical thought within a given subject. Critical thinking
entails cognitive skills, or abilities, and dispositions. These
dispositions, which can be seen as attitudes, or habits of mind,
include open- and fair-mindedness, inquisitiveness, flexibility,
a propensity to seek reason, a desire to be well-informed, and a
respect for and willingness to entertain diverse viewpoints.
There appear to be both general and domain-specific aspects of
critical thinking, which suggests two main conclusions. First,
instruction should represent a fusion of preparation in general
critical thinking principles, as well as practice in applying
critical thinking skills within the context of specific domains.
Second, transfer of critical thinking skills to new contexts is
unlikely to occur unless students are specifically taught to
transfer by sensitizing them to deep problem structures and are
given adequate opportunities to rehearse critical thinking
skills in a variety of domains. Critical thinking skills relate
to several other important student learning outcomes, such as
metacognition, motivation, collaboration, and creativity.
Metacognition (or thinking about thinking) supports critical
thinking in that students who can monitor and evaluate their own
thought processes are more likely to demonstrate high-quality
thinking. In addition, the ability to critically evaluate one’s
own arguments and reasoning is necessary for self-regulated
learning. Motivation supports critical thinking in that students
who are motivated to learn are more likely to persist at tasks
that call for critical thinking. In turn, learning activities
and assessment tasks that call for critical thinking may spark
student motivation because they are more challenging, novel, or
interesting. Students possessing critical thinking dispositions,
such as willingness to consider diverse perspectives, may make
better collaborators, and opportunities for collaboration may
promote higher-order thinking. Finally, creativity requires the
ability to critically evaluate intellectual products, and
critical thinking requires the open-mindedness and flexibility
that is characteristic of creative thinking.
Although learning progressions of critical thinking skills and
dispositions do not yet (and may never) exist, at least one
researcher has tied the progression of critical thinking skills
to cognitive development in general and metacognition in
particular. Empirical research in the area of metacognition
suggests that people begin developing critical thinking
competencies at a very young age and continue to improve them (or
not) over the course of a lifetime. Many adults exhibit deficient
reasoning and fail to think critically. However, in theory, all
people—from all intellectual ability levels and from the very
young to the very old—can be taught to think critically.
Empirical evidence suggests that children are, in fact, much more
capable of critical thought than once predicted.
If teachers are to be successful in encouraging the development
of critical thinking skills, explicit instruction in critical
thinking needs to be included in the curriculum, whether that
instruction occurs as a stand-alone course, is infused into
subject-matter content, or both. Cooperative or collaborative
learning methods hold promise as a way of stimulating cognitive
development, along with constructivist approaches that place
students at the center of the learning process. Teachers should
model critical thinking in their instruction and provide concrete
examples for illustrating abstract concepts that students will
find salient.
Assessing critical thinking skills poses challenges that are
similar to those in other measurement contexts. Standardized
instruments that use multiple-choice items to measure limited
aspects of critical thinking may meet reliability standards, but
these standardized instruments are vulnerable to criticisms of
(PBAs), which are seen as more valid representations of the
construct, are susceptible to low reliability and a lack of
generalizability across tasks when task development and
administration cannot be standardized. When such standardization
cannot be assured, PBAs should not be used to compare students
to one another or to track student progress or growth over time.
On the other hand, when PBAs are used for low-stakes, classroom
assessment purposes, the need for strict standardization can be
relaxed.
Educators are urged to use open-ended problem types and to
consider learning activities and assessment tasks that make use
of authentic, real-world problem contexts. In addition, critical
thinking assessments should use ill-structured problems that
require students to go beyond recalling or restating learned
information and also require students to manipulate the
information in new or novel contexts. Such ill-structured
problems should also have more than one defensible solution and
should provide adequate collateral materials to support multiple
perspectives. Stimulus materials should attempt to embed
contradictions or inconsistencies that are likely to activate
critical thinking. Finally, such assessment tasks should make
student reasoning visible by requiring students to provide
evidence or logical arguments in support of judgments, choices,
claims, or assertions.
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