A Critical Thinking Framework for Elementary Students

Critical thinking is using analysis and evaluation to make a judgment. Analysis, evaluation, and judgment are not discrete skills; rather, they emerge from the accumulation of knowledge. The accumulation of knowledge does not mean students sit at desks mindlessly reciting memorized information, like in 19th century grammar schools. Our goal is not for learners to regurgitate facts by rote without demonstrating their understanding of the connections, structures, and deeper ideas embedded in the content they are learning. To foster critical thinking in school, especially for our youngest learners, we need a pedagogy that centers knowledge and also honors the ability of children to engage with knowledge.

This chapter outlines the Critical Thinking Framework: five instructional approaches educators can incorporate into their instruction to nurture deeper thinking. These approaches can also guide intellectual preparation protocols and unit unpackings to prepare rigorous, engaging instruction for elementary students. Some of these approaches, such as reason with evidence, will seem similar to other “contentless” programs professing to teach critical thinking skills. But others, such as say it in your own words or look for structure, are targeted at ensuring learners soundly understand content so that they can engage in complex thinking. You will likely notice that every single one of these approaches requires students to talk—to themselves, to a partner, or to the whole class. Dialogue, specifically in the context of teacher-led discussions, is essential for students to analyze, evaluate, and judge (i.e., do critical thinking). 

The Critical Thinking Framework

Say it in your own words: Students articulate ideas in their own words. They use unique phrasing and do not parrot the explanations of others. When learning new material, students who pause to explain concepts in their own words (to themselves or others) demonstrate an overall better understanding than students who do not (Nokes-Malach et al., 2013). However, it’s not enough for us to pause frequently and ask students to explain, especially if they are only being asked to repeat procedures. Explanations should be effortful and require students to make connections to prior knowledge and concepts as well as to revise misconceptions (Richey & Nokes-Malach, 2015).

Break it down: Students break down the components, steps, or smaller ideas within a bigger idea or procedure. In addition to expressing concepts in their own words, students should look at new concepts in terms of parts and wholes. For instance, when learning a new type of problem or task, students can explain the steps another student took to arrive at their answer, which promotes an understanding that transfers to other tasks with a similar underlying structure. Asking students to explain the components and rationale behind procedural steps can also lead to more flexible problem solving overall (Rittle-Johnson, 2006). By breaking down ideas into component parts, students are also better equipped to monitor the soundness of their own understanding as well as to see similar patterns (i.e., regularity) among differing tasks. For example, in writing, lessons can help students see how varying subordinating conjunction phrases at the start of sentences can support the flow and readability of a paragraph. In math, a solution can be broken down into smaller steps.

Look for structure: Students look beyond shallow surface characteristics to see deep structures and underlying principles. Learners struggle to see regularity in similar problems that have small differences (Reed et al., 1985). Even when students are taught how to complete one kind of task, they struggle to transfer their understanding to a new task where some of the superficial characteristics have been changed. This is because students, especially students who are novices in a domain, tend to emphasize the surface structure of a task rather than deep structure (Chi & Van Lehn, 2012).

By prompting students to notice deep structures—such as the characteristics of a genre or the needs of animals—rather than surface structures, teachers foster the development of comprehensive schemata in students’ long-term memories, which they are more likely to then apply to novel situations. Teachers should monitor for student understanding of deep structures across several tasks and examples.

Notice gaps or inconsistencies in ideas: Students ask questions about gaps and inconsistencies in material, arguments, and their own thinking. When students engage in explanations of material, they are more likely to notice when they misunderstand material or to detect a conflict with their prior knowledge (Richey & Nokes-Malach, 2015). In a classroom, analyzing conflicting ideas and interpretations allows students to revise misconceptions and refine mental models. Noticing gaps and inconsistencies in information also helps students to evaluate the persuasiveness of arguments and to ask relevant questions.

Reason with evidence: Students construct arguments with evidence and evaluate the evidence in others’ reasoning. Reasoning with evidence matters in every subject, but what counts for evidence in a mathematical proof differs from what is required in an English essay. Students should learn the rules and conventions for evidence across a wide range of disciplines in school. The habits of looking for and weighing evidence also intersect with some of the other critical thinking approaches discussed above. Noticing regularity in reasoning and structure helps learners find evidence efficiently, while attending to gaps and inconsistencies in information encourages caution before reaching hasty conclusions.

Countering Two Critiques

Some readers may be wondering how the Critical Thinking Framework differs from other general skills curricula. The framework differs in that it demands application in the context of students’ content knowledge, rather than in isolation. It is a pedagogical tool to help students make sense of the content they are learning. Students should never sit through a lesson where they are told to “say things in their own words” when there is nothing to say anything about. While a contentless lesson could help on the margins, it will not be as relevant or transferable. Specific content matters. A checklist of “critical thinking skills” cannot replace deep subject knowledge. The framework should not be blindly applied to all subjects without context because results will look quite different in an ELA or science class.

Other readers may be thinking about high-stakes tests: how does the Critical Thinking Framework fit in with an overwhelming emphasis on assessments aligned to national or state standards? This is a valid concern and an important point to address. For teachers, schools, and districts locked into an accountability system that values performance on state tests but does not communicate content expectations beyond general standards, the arguments I make may seem beside the point. Sure, knowledge matters, but the curriculum demands that students know how to quickly identify the main idea of a paragraph, even if they don’t have any background knowledge about the topic of the paragraph.

It is crucial that elementary practitioners be connected to both evolving research on learning and the limiting realities we teach within. Unfortunately, I can provide no easy answers beyond saying that teaching is a balancing act. The tension, while real and relevant to teachers’ daily lives, should not cloud our vision for what children need from their school experiences.

I also argue it is easier to incorporate the demands of our current standardized testing environment into a curriculum rich with history, science, art, geography, languages, and novels than the reverse. The Critical Thinking Framework presents ways to approach all kinds of knowledge in a way that presses students toward deeper processing of the content they are learning. If we can raise the bar for student work and thinking in our classrooms, the question of how students perform on standardized tests will become secondary to helping them achieve much loftier and important goals. The choice of whether to emphasize excellent curriculum or high-stakes tests, insofar as it is a choice at all, should never be existential or a zero-sum game.

From Critical Thinking in the Elementary Classroom: Engaging Young Minds with Meaningful Content (pp. 25–29) by Erin Shadowens, Arlington, VA: ASCD. Copyright © 2023 by ASCD. All rights reserved.