An
Interview with Linda Elder:
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| • Thinking independently • Developing insight into egocentricity or sociocentricity • Exercising fair-mindedness • Exploring thoughts underlying feelings and feelings underlying thoughts • Developing intellectual humility and suspending judgment • Developing intellectual courage • Developing intellectual good faith or integrity • Developing intellectual perseverance • Developing confidence in reason • Refining generalizations and avoiding oversimplifications • Comparing analogous situations: transferring insights to new contexts • Developing one's perspective: creating or exploring beliefs, arguments, or theories • Clarifying issues, conclusions, or beliefs • Clarifying and analyzing the meanings of words or phrases • Developing criteria for evaluation: clarifying values and standards • Evaluating the credibility of sources of information • Questioning deeply: raising and pursuing root or significant questions • Analyzing or evaluating arguments, interpretations, beliefs, or theories • Generating or assessing solutions • Analyzing or evaluating actions or policies • Reading critically: clarifying or critiquing texts • Listening critically: the art of silent dialogue • Making interdisciplinary connections • Practicing Socratic discussion: clarifying and questioning beliefs, theories, or perspectives • Reasoning dialogically: comparing perspectives, interpretations, or theories • Reasoning dialectically: evaluating perspectives, interpretations, or theories • Comparing and contrasting ideals with actual practice • Thinking precisely about thinking: using critical vocabulary • Noting significant similarities and differences • Examining or evaluating assumptions • Distinguishing relevant from irrelevant facts • Making plausible inferences, predictions, or interpretations • Evaluating evidence and alleged facts • Recognizing contradictions • Exploring implications and consequences |
We might focus on any one of these abilities or dispositions in illustrating how one might assess the extent to which students have them. Take, for example, this ability: “Distinguishing relevant from irrelevant facts.” Before assessing this ability in students, we would of course teach them the importance of relevance in thinking. We would give them examples of how people often use irrelevant information when arguing for a position. We would teach them how to gather information relevant to an issue. We would teach them to discipline their own thinking so that they stick to the issue at hand. Then, in assessing the extent to which they could distinguish relevant from irrelevant information, we might ask them to write a paper that required them to think through an issue. We could assess whether they used irrelevant facts in addressing the problem, whether all easily available relevant facts were used, whether they failed to use important relevant facts, or whether they noted that the quality of their argument may have been limited by their inability to gather certain important relevant facts.
Or consider this ability: “Exploring implications and consequences.” One of the problems common in human thinking is a failure to think through the implications of one’s actions before acting (all actions being reflections of inner thoughts). When we use higher order thinking, we discipline our thinking so that we consider what might happen if we were to do this or that before we act. So, again, prior to assessing our students’ ability to think through implications, we first teach them how to do so, and the importance of doing so. We might give them imaginary situations to consider and ask them to explore the implications of behaving in different ways in those situations. We might ask them to recall an important situation they were in wherein they failed to think through implications before acting, which then led to negative consequences. We might have them document those consequences. Once they have had practice in thinking through implications, we could then assess their ability to do so by asking them, for example, to list all the implications they can think of for a given situation. In other words, we could say, “here is the situation…write out all of the ways in which you might reasonably act in this situation, and the implications for each behavior.”
10. What do you think about the Watson Glaser or the Ross Test of Higher Order Thinking Skills? Are there others that should be examined?
These two tests, like most critical thinking tests I have seen, focus on assessing the extent to which students can demonstrate isolated critical thinking skills. And as such these tests do a fairly good job of testing some specific critical thinking skills. However, the best assessment tools are those with high consequential validity. Assessment tools with high consequential validity are those which when used necessarily lead to the improvement of instruction. Assessing isolated critical thinking abilities has limited value in terms of helping students learn to think through complex problems within multiple disciplines (and therefore has low consequential validity).
The International Critical Thinking Test, developed by the International Center for the Assessment of Higher Order Thinking (the essay test I mentioned before), is an assessment tool with high consequential validity because teachers cannot accurately grade it unless they first understand critical thinking at a fairly deep level. Moreover, students can perform well on the test only if teachers explicitly teach the critical thinking concepts and tools highlighted in the test. Use of the test, then, drives teachers to develop classroom structures and strategies that foster critical thinking skills and abilities.
In this test, students are given a prompt, which can be an article, chapter, or essay of the teacher’s choosing. The purpose of the test is to determine the extent to which students are able to analyze and evaluate the reasoning embedded in the written prompt. The test can be used at the high school level and beyond, and can be modified for use with younger students.
Here is part one of the test:
Directions to students: Complete the following sentences with whatever elaboration you think necessary to make your meaning clear.
1) The main purpose of the “text”
you are analyzing is _____________________.
(Here you are trying to state as accurately as possible the author’s
purpose for writing the article. What, in your view, was the author
trying to accomplish?)
2) The key question that the author is addressing is _______________________. (Your goal is to figure out the key question implicit in the “text.” In other words, What was the key question addressed?)
3) The most important information in this article is ________________________. (You want to identify the key information the author used, or presupposed, in the article to support his/her main arguments. Here you are looking for facts, experiences, data the author is using to support her/his conclusions).
4) The main inferences/conclusions in this article
are ________________.
(You want to identify the most important conclusions that the author
comes to in the “text”).
5) The key idea(s) we need to understand in this
“text” is (are)_______________ . By these ideas the
author means ________________________________.
(To identify these ideas, ask yourself: What are the most important
ideas that you would have to understand in order to understand the
author’s line of reasoning? Then elaborate briefly what the
author means by these ideas).
6) The main assumption(s) underlying the author’s thinking is (are)_____________ (Ask yourself: What is the author taking for granted (that might be questioned). The assumptions are generalizations that the author does not think s/he has to defend in the context of writing the article, and they are usually unstated. This is where the author's thinking logically begins).
7)
a) If we take this line of reasoning
seriously, the implications are ___________.
(What consequences are likely to follow if people take the author’s
line of reasoning seriously? Here you are to follow out the logical
implications of the author’s position. You should include
implications that the author states, if you believe them to be logical,
but you should do your best thinking to determine what you think
the implications are.)
b) If we fail to take this line of
reasoning seriously, the implications are _____________.
(What consequences are likely to follow if people ignore the author’s
reasoning?)
8) The main point(s) of view of the author of the “text” is (are)_______________. (The main question you are trying to answer here is: What is the author looking at, and how is s/he seeing it? For example, in this test: “What are we looking at?” (thinking) “How are we seeing it?” (critically). Our point of view is defined by the fact that we see “thinking” as subject to critical evaluation).
In part two of the test students are asked to assess the reasoning embedded in the writing prompt. It provides the criteria by which students will evaluate the reasoning:
Directions to students: You should consider the questions below in developing your assessment of the writing sample. In addition to the questions below, you should feel free to comment on the reasoning in terms of its clarity, accuracy, precision, relevance, depth, breadth, logicalness, significance, and fairness or lack thereof.
1. Question: Is the question at issue clearly stated or implied? Is it unbiased? Does the expression of the question do justice to the complexity of the matter at issue?
2. Purpose: Is the purpose well-stated or implied? Is it clear and justifiable? Are the question and purpose directly relevant to each other?
3. Information: Is relevant evidence, experiences and/or information essential to the issue cited? Is the information accurate? Are the complexities of the issue addressed?
4. Ideas (concepts): Are key ideas clarified when necessary? Are the concepts used justifiably?
5. Assumptions: Is there sensitivity to what is being taken for granted or assumed? (Insofar as those assumptions might reasonably be questioned?). Are questionable assumptions being used without addressing problems which might be inherent in those assumptions?
6. Conclusions: Is a line of reasoning well developed explaining the main conclusions? Are alternative conclusions considered? Are there any apparent inconsistencies in the reasoning?
7. Point of View: Is a sensitivity to alternative relevant points of view or lines of reasoning shown? Is consideration given to objections framed from other relevant points of view? If so, were they responded to?
8. Implications: Is sensitivity shown to the implications and consequences of the position taken?
This essay test contains both directions for students, as well as grading directions and sample graded tests for teachers.
11. Can teachers of the gifted develop their own higher order or
critical thinking tests?
The difficulty with developing one’s own critical thinking tests is that it presupposes knowledge of critical thinking that most teachers simply do not have. The first step to developing critical thinking assessment tools of any kind is beginning the process of learning critical thinking oneself. Unfortunately many teachers resist take this step. Before they have sufficient understanding of critical thinking, they see themselves as capable of assessing it. In other words, they think they can design assessment instruments to test something they do not themselves understand.
But when teachers have worked the concepts embedded in critical thinking into their thinking, when they have designed classroom activities to teach for critical thinking, and are taking the theory of critical thinking seriously, assessing critical thinking will become a natural outgrowth of their own development. Assessment components for every critical thinking assignment will begin to become apparent.
12. How should gifted kids be taught scientific thinking skills
and reasoning?
The ability to think scientifically is very important for living in today’s complex world. But again, there is no reason to believe that “gifted students” should be taught scientific thinking skills and abilities differently from other students. Richard Paul and I have just completed a miniature guide to scientific thinking for students and teachers. To a large extent, scientific thinking should be taught in the same way that any discipline should be taught. Students should learn to think through the content, to see scientific content as a mode of reasoning that is understood through thinking, assessed through thinking, and applied through thinking. They should first learn, truly learn, what science is. Most students go through years and years of science instruction, yet never learn what science is. They cannot articulate the concept of science. They don’t apply scientific laws and principles to situations in their lives. For example, many people believe in the ancient practice of astrology, though no scientific evidence has ever existed to support it, and though the idea at its very foundation is absurd (that if you were born when the sun was passing through a certain constellation of stars---shaped, for example, like a wolf--- you will end up behaving in keeping with that constellation---i.e., like a wolf!). The people who believe in astrology are often the same people who sit through years of science instruction but who never learn to think scientifically.
As we point out in our miniature guide to scientific reasoning,
a well-cultivated scientific thinker:
The following checklist can be used to foster scientific reasoning:
1) All scientific reasoning has a PURPOSE.
2) All scientific reasoning is an attempt to FIGURE something out, to settle some scientific QUESTION, solve some scientific PROBLEM.
3) All scientific reasoning is based on ASSUMPTIONS.
4) All scientific reasoning is done from some POINT OF VIEW.
5) All scientific reasoning is based on scientific DATA, INFORMATION & EVIDENCE.
6) All scientific reasoning is expressed through, and shaped by, scientific CONCEPTS and THEORIES.
Make sure you are using concepts and theories with care and precision.
7) All scientific reasoning contains INFERENCES or INTERPRETATIONS
by which we draw scientific CONCLUSIONS and give meaning to scientific
data.
8) All scientific reasoning leads somewhere or has IMPLICATIONS and CONSEQUENCES.
With thinking at the heart of science instruction, students learn to reason their way through scientific issues and problems. They begin to see science as integrated and applicable to human life.
When teachers of science understand the foundations of critical thinking, they can begin to develop instructional strategies to foster scientific reasoning. Here are two examples of templates that focus on analyzing the logic of an experiment. Students can be asked to complete these analyses for every experiment they conduct or work through. These templates can be simplified for young students.
The Logic of An Experiment
(Or Laboratory Procedure)
The main goal of the experiment is …
The hypothesis(es) we seek to test is/are…
The key question the experiment seeks to answer is…
The controls involved in this experiment are…
The key concept(s) or theory(ies) behind the experiment i/ares…
The experiment is based on the following assumptions…
The data that will be collected in the experiment are…
The potential implications of the experiment are…
The point of view behind the experiment is…
Post Experiment Analysis
The data collected during the experiment was…
The inferences (conclusions) that most logically follow from the
data are…
These inferences are/are not debatable, given the date gathered
in this study and the evidence to this point.
The hypothesis (or hypotheses) for this experiment was/was not (were/were
not) support by the experiment results.
The assumptions made prior to this experiment should/should not
be modified given the data gathered in this experiment. Modifications
to assumptions (if any) should be as follows…
The most significant implications of this experiment are…
Recommendations for future research in this area are…
These are just two examples of how we can help students learn to
reason through scientific questions. Our main goal is to help students
see science, and indeed any subject, as a discipline to be thought
through on one’s own, as a discipline alive with questions,
a discipline which, when understood, helps one better deal with
life’s complex problems.
13. If there were one book you would want gifted children/teachers/parents
to read, what would it be?
For children in grades 1-5, I would recommend the Miniature Guide to Critical Thinking for Children. I recommend the teacher’s manual to this guide for teachers of these grade levels. For students in 6th grade and beyond I recommend the Miniature Guide to Critical Thinking Concepts and Tools. For teachers and parents interested in learning the fundamentals of critical thinking, I recommend the book Critical Thinking: Tools for Taking Charge of Your Learning and Your Life, or the book Critical Thinking: Tools for Taking Charge of Your Personal and Professional Life. All of these publications are available through the Foundation for Critical Thinking (www.criticalthinking.org).
There are many books, both of nonfiction and fiction, which shed light on human problems, books well-worth reading. But the reader is rarely left with an explicit understanding of the problems in thinking which lead to problem behavior. When thinking is considered, it is often dealt with implicitly rather than explicitly. It is crucial that students, teachers and parents study thinking itself, that they learn to take thinking apart and assess it, that they learn to evaluate both their own thinking and the thinking of others. This is best done through explicit instruction in thinking, instruction outlined in the miniature guides and books mentioned above.
14. In our frenzy to mainstream and include children with disabilities in regular classrooms, what effect will this have on educating gifted children and enhancing their thinking skills?
Certainly mainstreaming students with diverse ability levels can be challenging, but what is most important is how we structure the typical class day, what activities we design for students, and whether we actively engaged them in intellectual work. There are certain skills that students must learn if they are to function even marginally, such as learning to read. And we need to use specific teaching strategies such as the Phonographic Reading Program to help students learn to read who are having difficulties deciphering language. But, beyond these basic skills, teachers need to design instructional strategies that routinely engage students in intellectual work.
It is possible to design many student activities that intellectually engage both advanced and struggling students. For an example, let us return to the reading comprehension strategy I discussed in question 4. In this activity, students take turns reading and then explaining in their own words what they have read. They then discuss the meaning of the passage, sharing their different (if any) interpretations. In this activity, students who read at more advanced levels should be better able to interpret what they read than other students in the group. When grouped with students who have difficulties reading, they are able, through their example, to help these students better comprehend what they read. At the same time, through the practice of explaining aloud in their own words what they have read, and critiquing the interpretations of their peers, they deepen their own comprehension ability. In this type of activity we give life to the idea: It is in teaching that we learn.
While I am focused on “cooperative” classroom strategies, let me briefly comment on the use of competition that is now so popular in our schools. It is my view that cooperation should be encouraged and rewarded in the classroom, and that competition should be reduced to a minimum. Whenever possible, student work in class should mirror the intellectual work they will need to do when they are thinking their way through life’s problems. Real life intellectual work often depends not only upon students’ own reasoning abilities, but also on cooperating with others. When we design class structures that are genuinely inclusive, structures that communicate the importance of everyone’s development, structures that require a willingness to work together to help one another grow, each student is shown respect, and each student grows according to their capability. Moreover, advanced students come to see the intrinsic value in helping others, rather than focusing exclusively on their own needs and desires.
15. Are teachers currently teaching to Bloom’s higher aspects of his taxonomy or are they teaching to Gardner’s Multiple Intelligences. What are the pros and cons of both of these approaches? Both Bloom’s taxonomy and Gardner’s multiple intelligences are stilling playing a role in k-12 schooling, though the extent to which they are varies. Moreover, the effects of these two approaches on student development varies depending on how they are used in the classroom.
Let’s consider Bloom’s taxonomy first. The taxonomy itself, which is found in The Taxonomy of Educational Objectives (Bloom, et.al., 1979) contains what Bloom considers a hierarchy of cognitive skill domains, from the simple to the complex. The taxonomy itself includes a wealth of potentially useful information. But the taxonomy as a hierarchy is fundamentally flawed. Let me explain. Bloom presents “knowledge” as the first level of cognitive skill, meaning that it is the most simple of all cognitive skills. Moreover, Bloom equates knowledge with recall. But true knowledge occurs in the mind only through an active skilled intellectual process. Knowledge cannot be memorized, but must be brought into the mind, connected to other ideas, and used by the mind when relevant to particular situations. The second cognitive skill level according to Bloom is comprehension. Thus Bloom would lead us to believe that one can have knowledge prior to comprehension, that one can know something when one doesn’t understand it. How can this be?
A second major flaw in Bloom’s taxonomy is that it lacks intellectual standards. For example, according to the taxonomy, the highest cognitive skill is evaluation. Yet every human being routinely evaluates situations, experiences, relationships, etc. In other words, each one of us makes evaluative judgments every day. This is what humans do. The significant question is: how do we make these judgments? What standards do we use to evaluate? Do we decide in accordance with what we have always done, or what our friends would want us to do? Or do we use intellectual standards in evaluation, standards such as accuracy, relevance, depth, breadth, significance, logicalness and fairness?
Another problem in Bloom’s taxonomy is its failure to integrate its six cognitive domains: knowledge, comprehension, application, analysis, synthesis, and evaluation. Nowhere does Bloom help teachers understand how these domains interrelate. In addition, the taxonomy implies that teachers need only be armed with questions within each of the cognitive levels to effectively foster cognitive skills. Yet higher order thinking entails complex interrelated skills teacher must develop before they can teach these skills to others. In other words, it is unrealistic to assume that teachers can easily develop intellectual skills simply by using a few structures or activities that purportedly lead to higher order reasoning abilities. For these reasons, reliance on Bloom’s taxonomy has misled many well-meaning teachers.
Now let us turn to Howard Gardner’s multiple intelligences theory. This theory implies that the idea of intelligence must be broadened beyond the traditional verbal/mathematical skills. Instead it must include a number of intellectual domains within which human beings are capable of excelling and should be encouraged to excel. This theory contends that students should be encouraged to develop those "intelligences" that interest them and that they are naturally inclined toward.
It certainly makes sense to broaden our view of “intelligence” beyond the narrow focus on skill areas traditionally measured by intelligence tests. To understand this, let’s consider the concept of “intelligence.” In standard educated usage "intelligence" is understood as the ability to learn or understand from experience or to respond successfully to new experiences. It involves the ability to acquire and retain knowledge. It implies the use of reason in solving problems and directing conduct effectively. Given this definition of “intelligence,” multiple intelligences would thus roughly mean the ability to learn in multiple domains, or to respond successfully to new experiences in multiple domains, to solve problems in multiple domains.
Because students are likely to face a variety of complex problems in many different intellectual fields throughout their lives, it stands to reason that students must develop multiple skills and insights to successfully function within those fields. For example, students must learn to reason well through economic, sociological, historical, scientific, and mathematical questions. They must learn command over their emotions. They must learn to scrutinize their behavior in order to assess it and change it. They must deeply understand the role of self-deception in thinking. Thus students must have intellectual command over all of these domains, and many others, to function well, broadly speaking. Therefore simply from a conceptual viewpoint, students need to develop multiple uses of their “intelligence.”
However, the skills of mind they need to successfully think through these domains are generalizable in nature. They are intellectual tools that enable students to develop multiple levels of intellectual strategies, as well as to develop new insights in new domains of their lives.
Certainly, to some extent students should be encouraged to develop within the domains that interest them. Yet education, properly so called, has as its first obligation to teach students intellectual command over their minds, to teach students the intellectual skills they must have to function well in the world. To elaborate, students need to learn how to pursue questions, how to clarify and evaluate purposes, how to check information for accuracy and relevance, how to uncover faulty assumptions, how to think through issues of conflict in a fair-minded way, how to follow out implications before acting, how to consider multiple conclusions to a problem, how to think through their use of concepts to ensure justifiable usage.
When "multiple intelligence" is misused in the classroom, the fundamental pitfall has been that teachers consider every domain in which intelligence can be manifested to be equally important.
If teachers are using Howard Gardner's theory of multiple intelligences as a guide to instructional practices, they are emphasizing development of the following "intelligences" as delineated by Gardner:
Although Gardner’s theory may not be problematic in-and-of-itself, the manner in which it is embodied in the classroom often is. Certainly these, as well as many other potential “intelligences” could be identified. Yet our emphasis on any one of them in the classroom must be driven by the ultimate goals of education. In other words, if our role as educators is to teach students the intellectual skills they will need to make reasonable, rational decisions as adults, then we must emphasize development of the “intelligences” that lead to their ability to do so. For example, there is no getting around the fact that it is far more important for students to learn to evaluate their thinking, to effectively assess it, and to upgrade it when reasoning through complex issues than to pursue musical or kinesthetic intelligences. When we have provided the intellectual foundations presupposed in an educated person, we can then afford to focus on less essential, but nevertheless important, manifestations of human intelligence.
Furthermore, teachers often emphasize certain “intelligences” in the classroom based on areas of student interest. While we want learning to be enticing and even enjoyable for students wherever possible, it is often the case that the most important concepts to learn are the most difficult to learn. If we encourage students only in those domains of greatest interest to them, we may inadvertently fail to provide them with the intellectual skills that define the educated mind.
18. What does it mean to be an effective student?
In other words, what does it take for students to be skilled at
learning? Are gifted students more effective at learning than other
students?
In the Miniature Guide on How to Study and Learn for Students, we list 18 Ideas for Becoming a Master Student. These ideas largely foster independent thinking and responsibility for one’s own learning. They are not presupposed in any students, including “gifted students.” Here are the 18 ideas:
Idea #1: Make sure you thoroughly understand the requirements of each class, how it will be taught and what will be expected of you. Ask questions about the grading policies and for advice on how best to prepare for class.
Idea # 2: Become an active learner. Be prepared to work ideas into your thinking by active reading, writing, speaking, and listening.
Idea # 3: Think of each subject you study as a form of thinking (If you are in a history class, your goal should be to think historically; in a chemistry class to think chemically; etc…)
Idea # 4: Become a questioner. Engage yourself in lectures and discussions by asking questions. If you don’t ask questions, you will probably not discover what you do and do not know.
Idea # 5: Look for interconnections. The content in every class is always a SYSTEM of interconnected ideas, never a random list of things to memorize. Don’t memorize like a parrot. Study like a detective, always relating new learning to previous learning.
Idea # 6: Think of your instructor as your coach. Think of yourself as a team member trying to practice the thinking exemplified by your instructor. For example, in an algebra class, think of yourself as going out for the algebra team and your teacher as demonstrating how to prepare for the games (tests).
Idea # 7: Think about the textbook as the thinking of the author. Your job is to think the thinking of the author. For example, role play the author frequently. Explain the main points of the text to another student, as if you were the author.
Ideal # 8: Consider class time as a time in which you PRACTICE thinking (within the subject) using the fundamental concepts and principles of the course. Don’t sit back passively, waiting for knowledge to fall into your head like rain into a rain barrel. It won’t.
Idea # 9: Relate content whenever possible to issues and problems and practical situations in your life. If you can’t connect it to your life, you don’t know it.
Idea # 10: Figure out what study and learning skills you are not good at. Practice those skills whenever possible. Recognizing and correcting your weaknesses is a strength.
Idea # 11: Frequently ask yourself: “Can I explain this to someone not in class?” (If not, then you haven’t learned it well enough.)
Idea # 12: Seek to find the key concept of the course during the first couple of class meetings. For example, in a Biology course, try explaining what biology is in your own words. Then relate that definition to each segment of the content throughout the semester. Fundamental ideas are the basis for all others.
Idea # 13: Routinely ask questions to fill in the missing pieces in your learning. Can you elaborate further on this? Can you give an example of that? If you don’t have examples, you are not connecting what you are learning to your life.
Idea # 14: Test yourself before you come to class by trying to summarize, orally or in writing, the main points of the previous class meeting. If you cannot summarize main points, you haven’t learned them.
Idea # 15: Learn to test your thinking using intellectual standards. “Am I being clear? Accurate? Precise? Relevant? Logical? Am I looking for what is most significant?”
Idea # 16: Use writing as a way to learn by writing summaries in your own words of important points from the textbook or other reading material. Make up test questions. Write out answers to your own questions.
Idea # 17: Frequently evaluate your listening. Are you actively listening for main points? Can you summarize what your instructor is saying in your own words? Can you elaborate what is meant by key terms?
Idea # 18: Frequently evaluate your reading. Are you actively reading the textbook? Are you asking questions as you read? Can you distinguish what you understand from what you don’t?
In terms of the question: Are gifted students more effective at learning than other students, on the whole I would say no. How many “gifted” students, for example, routinely engage in the intellectual practices mentioned above? Moreover, how many of them routinely use intellectual standards in their thinking? Intellectual standards are the standards be which educated persons determine the quality of reasoning. Here are some of those standards, as well as some questions implied by them:
Clarity:
understandable, the meaning can be grasped
Accuracy:
free from errors or distortions, true
Precision:
exact to the necessary level of detail
Relevance:
relating to the matter at hand
Depth:
containing complexities and interrelationships
Breadth:
encompassing multiple viewpoints
Logic:
the parts make sense together, no contradictions
Significance:
focusing on the important, not trivial
Fairness:
Justifiable, not self-serving (or egocentric)
| Clarity | Could you elaborate further? |
| Could you give me an example? | |
| Could you illustrate what you mean? | |
| Accuracy | How could we check on that? |
| How could we find out if that is true? | |
| How could we verify or test that? | |
| Precision | Could you be more specific? |
| Could you give me more details? | |
| Could you be more exact? | |
| Relevance | How does that relate to the problem? |
| How does that bear on the question? | |
| How does that help us with the issue? | |
| Depth | What factors make this a difficult problem? |
| What are some of the complexities of this question? | |
| What are some of the difficulties we need to deal with? | |
| Breadth | Do we need to look at this from another perspective? |
| Do we need to consider another point of view? | |
| Do we need to look at this in other ways? | |
| Logic | Does all this make sense together? |
| Does your first paragraph fit in with your last? | |
| Does what you say follow from the evidence? | |
| Significance | Is this the most important problem to consider? |
| Is this the central idea to focus on? | |
| Which of these facts are most important? | |
| Fairness | Do I have any vested interest in this issue? |
| Am I sympathetically representing the viewpoints of others? | |
| Am I putting views I oppose in their strongest form? | |
Moreover, how many “gifted” students possess intellectual traits or dispositions? Consider the following intellectual traits, and related questions that foster their development.
Intellectual humility is knowledge of ignorance, sensitivity to what you know and what you do not know. It means being aware of your biases, prejudices, self-deceptive tendencies and the limitations of your viewpoint. Questions that foster intellectual humility include:
Intellectual courage is the disposition to question beliefs you feel strongly about. It includes questioning the beliefs of your culture and the groups to which you belong, and a willingness to express your views even when they are unpopular. Questions that foster intellectual courage include:
Intellectual empathy is awareness of the need to actively entertain views that differ from our own, especially those we strongly disagree with. It is to accurately reconstruct the viewpoints and reasoning of our opponents and to reason from premises, assumptions, and ideas other than our own. Questions that foster intellectual empathy include:
Intellectual integrity consists in holding yourself to the same intellectual standards you expect others to honor (no double standards). Questions that foster intellectual integrity include:
Intellectual perseverance is the disposition to work your way through intellectual complexities despite the frustration inherent in the task. Questions that foster intellectual perseverance include:
Confidence in reason is based on the belief that one’s own higher interests and those of humankind at large are best served by giving the freest play to reason. It means using standards of reasonability as the fundamental criteria by which to judge whether to accept or reject any belief or position. Questions that foster confidence in reason include:
Intellectual autonomy is thinking for oneself while adhering to standards of rationality. It means thinking through issues using one’s own thinking rather than uncritically accepting the viewpoints of others. Questions that foster intellectual autonomy:
16. What kind or kinds of educational reform are currently needed?
The most important area of education reform at this point in our history should be on rethinking “education” so that students learn the intellectual skills, abilities, and dispositions vital to living a productive and ethical life. Students need these skills to reason through the content in class, to interrelate important ideas within and between subjects, and apply content to life’s problems. At present, students leave our elementary schools, middle schools, high schools, colleges and graduate schools without the intellectual abilities essential to the educated person. For the most part, for example, students have not learned to:
Students are not learning what it means to reason through content, to actively bring it into their thinking in a meaningful and productive way.
This type of reform can occur only when the development of reasoning abilities and dispositions are placed at the very foundation of teacher preparation programs and therefore of schooling.
Other References
Bloom, B. (1956). Taxonomy of Educational Objectives. NY: David McKay Co., Inc.
Howe, M. (1997). IQ In Question: The Truth About Intelligence. Thousand Oaks, CA: Sage Publications Inc.
Paul, R., Elder, L., Bartell, T. (1997). California Teacher Preparation for Instruction In Critical Thinking: Research Findings and Policy Recommendations. Dillon Beach, CA: The Foundation for Critical Thinking.

