Bloom’s Taxonomy
Joshua Bishop
Learning Objectives
By the end of this chapter, you will be able to …
- Identify the hierarchical levels of Bloom’s taxonomy
- Evaluate the Strengths and Limitations of Bloom’s taxonomy
Introduction to Bloom’s Taxonomy
Bloom’s taxonomy is a guide about the goals to be achieved in the classroom by the teachers. It accomplishes this by creating a step-by-step model of classifying thinking and knowledge acquisition. It was created by Dr. Benjamin Bloom, the taxonomy’s namesake, in conjunction with other psychologists.
Bloom’s organizes learning from lower order to higher order and each category of learning builds upon the other to further clarify this concept. It is a useful standard when crafting learning outcomes. Bloom’s taxonomy lists action verbs according to the complexity of skill required by the action described. As an educator, you can use Bloom’s taxonomy to clearly align the required performance to the appropriate cognitive level. By paying attention to learning objectives can help focus your attention on the most critical aspects of a learning experience.
If you prefer an overview on this topic in video format, please watch the video below:
Origins of the Learning Theory
Bloom’s taxonomy was created in 1956 (Bloom, 1956) under the leadership of educational psychologist Dr Benjamin Bloom in order to promote higher forms of thinking in education such as analyzing and evaluating rather than just remembering facts or memorizing. Throughout the years, Bloom’s taxonomy has remained relatively unchanged, though in 2001, the names of the levels were revised by David Kathwohl and Lorin Anderson (Anderson & Krathwohl, 2001). While the hierarchy is similar to the original form, now each level is identified by a verb, indicating what the learner can do at that particular stage in their learning.
When this was originally created in 1956, the world was in the midst of the post World War II educational reform and a Cold War with the USSR. At this time, a new way of thinking called “cognitivism” was being developed and the two topics are heavily intertwined. Indeed, the most widely used theories of cognitivism in education are based on Bloom’s taxonomies of learning objectives, which are related to the development of different kinds of learning skills, or ways of learning. These tools and theories were developed with the intent of improving US education both in the post World War II effort and to maintain an edge over the USSR in the Cold War. While this originated in the mid-1950s and was updated in 2001, this taxonomy remains useful even today.
Fundamental Tenets of the Theory
With this historical background, we can now examine the core structure and principles of Bloom’s taxonomy and how it applies to modern education. As mentioned, Bloom’s taxonomy is helpful industry standard when generating learning outcomes. Bloom’s taxonomy hierarchically maps verbs according to the complexity of skill required by the action described. This hierarchy of learning means that learners need to progress through each of the levels, from remembering through to evaluating/creating. For example, some verbs such as define or identify rank as lower-order competencies, whereas verbs like analyze or interpret are considered higher-order competencies.
The concept is that a learner will not be able to perform the verb of one level until they are capable of performing the verb of the level below it. At the bottom is remembering which is the most fundamental learning objective is to remember a fact. Moving up the hierarchy, understanding, represents an increase in understanding of something, yet it is also dependent on the fact that a learner must remember something before understanding it. With this hierarchy in mind, it works up from understanding to applying, analyzing, evaluating, and creating.
See figure 1 below to visualize Bloom’s taxonomy and to gain greater insights on each level of the hierarchy.

Image description:
The image depicts Bloom’s taxonomy in a pyramid shape divided into six colored sections representing different levels of cognitive processes. From bottom to top, the sections are labeled with a level: Knowledge, Comprehension, Application, Analysis, Synthesis, and Evaluation. These represent increasing levels of complexity in learning processes.
Bloom’s taxonomy is based on the theory of cognitivism though it has some traits of behaviorism and constructivism, other well-known learning theories. It emphasizes mental processes, such as memory, comprehension, and problem solving, showing its deep cognitivist roots. Yet the higher echelons of the taxonomy, such as analysis, evaluation, and creation show clear ties with constructivism. Finally, as behaviorism is rooted in observable behavior, the bottom-most level of knowledge is most often measured with retention tests, a clearly behaviorist measurement of learning.
Strengths and Limitations of Bloom’s Taxonomy
Bloom’s taxonomy’s greatest strength is that it clearly identifies learning objectives. This representation both defines and instructs in a single step, a useful tool for both theorists and instructional designers. As instructional designers create curriculum, they are able to more effectively gauge their students current level and decide on appropriate learning objectives for that current level in addition to the time and resources the learners will have in the instruction to move up in the hierarchy. Additionally, by using a common framework, designers and instructors have a shared language that will allow for easier communication and more quantifiable measurements.
Like any model, Bloom’s taxonomy has its weaknesses and limitations. Primarily, it is only a representation of what truly occurs inside the mind of learners. It simplifies and assumes and, while a powerful tool, cannot fully represent what actually occurs in the brain. A few particular limitations are as follows:
- Its simplicity may lead to instructional designers ignoring exceptions or the nuances necessary to understand the learning process.
- Bloom’s taxonomy is not as relevant for learning situations that only require rote memorization as, in those cases, it does not move past the bottom tier of the taxonomy.
- It’s less useful for young children that have less structured learning opportunities or for learning creative arts or neurodivergent learners of all ages.
- Bloom’s taxonomy doesn’t fully explain learning for hands-on or physical activities that rely on muscle memory.
Still, Bloom’s taxonomy is useful in most situations, whether that’s in-person or online. It works in K-12 school, colleges, and even professional training, except in the cases above.
Instructional Design Implications
Despite its limitations, Bloom’s taxonomy remains a powerful tool in instructional design. Bloom’s taxonomy is very practical and is most effectively utilized when establishing and reviewing the learning objectives of the curriculum. Educators should also use it when developing exams or other evaluative measures. Finally, it can be used in categorizing the current understanding level of the learner for placement purposes. It is useful to see a practical example of the application of Bloom’s taxonomy. Below, we provide two distinct examples of how Bloom’s taxonomy can be used to create instruction and to identify learner progress.
Example 1 of Using Bloom’s Taxonomy
In this example of the application of Bloom’s taxonomy, an instructional designer working on a cybersecurity course will help learners progress from basic recall to critical thinking. This will be done by arranging objectives and activities to align with Bloom’s Taxonomy. This helps students build foundational knowledge before advancing to skills such as critical analysis and problem-solving.
- Remember: First, learners will identify key cybersecurity terms (e.g., malware, firewall, encryption). Activities might include flashcards or simple quizzes to encourage retention of definitions and concepts.
- Understand: Next, learners deepen comprehension by explaining how various cybersecurity threats operate in real-world contexts. They might watch short video case studies and then describe, in a discussion forum, the underlying principles that make certain systems vulnerable.
- Apply: To bridge theory and practice, learners apply their knowledge by developing a basic security protocol for a hypothetical small business. Through scenario-based exercises, they practice selecting appropriate protective measures, demonstrating practical implementation of concepts.
- Analyze: As the course progresses, learners compare and contrast different cybersecurity frameworks (e.g., NIST vs. ISO standards). They dissect case studies, breaking down the strengths and weaknesses of each approach to grasp the finer intricacies of cybersecurity strategy.
- Evaluate: At this level, learners assess a company’s security infrastructure by critiquing its effectiveness, proposing improvements, and justifying each recommendation. This evaluative process fosters critical judgment and decision-making skills.
- Create: Finally, learners use all the knowledge they have gained thus far to design a comprehensive cybersecurity plan for a mock organization. This culminating project requires them to innovate, integrate best practices, and anticipate potential current and future threats.
If the instructional designer sequences the objectives in line with Bloom’s taxonomy, they ensure that learners not only gain foundational knowledge but also develop the capacity to creatively solve new problems in the cybersecurity domain. This strategic approach maximizes skill transfer and supports deeper learning outcomes.
Example 2 Using Bloom’s Taxonomy
Bloom’s theory can work with many teaching methods and can be adapted to different topics. This second example uses Harry Potter as an example to show progress through Bloom’s levels.
By using Bloom’s taxonomy in various fields, from cybersecurity to literature, we see its adaptability. Now we can review the main ideas of this framework.
Conclusion
Bloom’s taxonomy is a straightforward way to view the learning process while also providing actionable steps to improve and tailor-make content for a specific student or group of students. This easy-to-understand and implement theory can be used by instructional designers when considering learning objectives. It also can be a beneficial part of the review process when developing assessments.
Over time, Bloom’s taxonomy can become a natural part of how teachers plan lessons. With new technology, such as matching tools with AI, teachers can check that goals and tests match up well. AI can be tasked to review the learning objectives and the assessment criteria to make certain they are in alignment.
Check your knowledge of Bloom’s taxonomy below:
Exercises
References
Anderson, L. W., & Krathwohl, D. R. (Eds.). (2001). A taxonomy for learning, teaching, and assessing: A revision of Bloom’s taxonomy of educational objectives. Allyn & Bacon.
Bloom, B. S., Engelhart, M. D., Furst, E. J., Hill, W. H., & Krathwohl, D. R. (1956). Taxonomy of educational objectives: The classification of educational goals. Handbook I: Cognitive domain. David McKay.
Sethi, M. (n.d.). Bloom’s taxonomy of educational objectives. OER Commons. Retrieved February 20, 2025, from https://oercommons.org/courseware/lesson/72230/overview
Additional Resources
Queen, E. (2014). How to write learning objectives using Bloom’s taxonomy [Video]. YouTube. Retrieved February 20, 2025, from https://youtu.be/4DgkLV9h69Q
Licenses and Attribution
“Bloom’s Taxonomy” by Joshua Bishop is created based off information found primarily at Teaching in a Digital Age – Second Edition and his chapter on cognitivism by Anthony William (Tony) Bates, the University of Maryland Global Campus’s OER Toolkit, and the Theories of Learning chapter from the OER Commons by Heather Syrett and Laura Lucas, all of which are licensed under a Creative Commons Attribution-NonCommercial 4.0 International License. “Bloom’s Taxonomy” is licensed under CC BY-NC-SA-4.0
AI Attribution: This work was primarily human-created. AI was used to create image captions and descriptions. AI-generated content was reviewed and approved. The following model was used: ChatGPT.