Uncommon Sense Teaching
Practical Insights in Brain Science to Help Students Learn
By Barbara Oakley
Category: Science | Reading Duration: 17 min | Rating: 4.3/5 (25 ratings)
About the Book
Uncommon Sense Teaching (2021) explores how cognitive science can inform teaching practices to enhance student learning. It emphasizes the importance of understanding the brain’s learning architecture and offers practical strategies for improving instruction, classroom management, and lesson planning.
Who Should Read This?
- Anyone interested in evidence-based learning strategies
- Teachers seeking to enhance student learning outcomes
- Parents wanting to support their child’s education
What’s in it for me? Discover how to align teaching with neuroscience for effective and enduring learning.
If you’ve ever found yourself wondering why some of your students seem to grasp concepts effortlessly while others struggle to retain what they’ve learned, you’re not alone. It’s easy to assume that teaching is just about delivering information, but what really matters is how our brains process, store, and retrieve that information. When teaching aligns with how our brains work, learning becomes much more effective and enduring. What’s fascinating is that the brain doesn’t just “remember” things in a single way – it relies on different memory systems, each with its own strengths, weaknesses, and preferences.
By understanding how these systems work, we can unlock strategies that truly stick with our students. In this Blink, you’ll learn how the brain’s memory architecture influences learning and how to leverage that knowledge in the classroom. You’ll explore powerful teaching strategies, such as retrieval practice and active learning, along with methods to differentiate instruction for students with varying learning speeds. And you’ll see how to make the most of virtual learning and lesson planning, so students stay engaged and motivated – no matter how or where they’re learning. Whether in-person or online, these insights will help make teaching more rewarding for you and learning more rewarding for your students.
Chapter 1: The brain’s learning architecture
When we think about how we acquire knowledge, it’s easy to overlook the complexity of the brain’s memory systems. But understanding how our brain processes and stores information is crucial to enhancing our teaching and learning. The brain doesn’t just “remember” in a single way; it uses multiple memory systems to handle different types of information, and each has its strengths and quirks. The first key player is working memory, which holds information temporarily for immediate use.
You can think of working memory like an octopus juggling balls. On average, it can confidently manage four “balls” – pieces of information – at a time. Its proficiency here, however, can make it somewhat of a master trickster. We can easily be lured into thinking we’ve learned something well when, in fact, we’re just juggling that ball momentarily. This makes working memory essential for tasks requiring quick thinking, but not so reliable for deep learning. For more lasting knowledge, our brain relies on long-term memory, where information is stored more permanently through a network of neural connections.
These connections form the foundation of real learning. Establishing these connections is sometimes referred to as the “learn it, link it” process. The goal here is to move information from the temporary holding pattern of working memory into the stable structure of long-term memory. Information can travel to long-term memory through two pathways: the declarative pathway and the procedural pathway. The declarative pathway is involved in remembering facts, events, and explanations – things like historical dates or scientific theories. This pathway is fast at first, but slower when it comes to recalling or using the information in practice.
On the other hand, the procedural pathway deals with skills and habits, like riding a bike or speaking a native language. This system is slower to learn but – once mastered – operates automatically, requiring little conscious effort. Even a basic understanding of how the brain learns can give us valuable insight into how to better structure lessons and encourage deeper learning. By aligning teaching methods with how these systems function, we can start making our learning more effective and lasting.
Chapter 2: Core instructional strategies
So the brain’s learning architecture is shaped by how we interact with information. Based on this understanding, we can use instructional strategies to support our natural processes of memory and learning. Rather than simply pushing content at students, effective teaching focuses on techniques that help them actively engage with, process, and consolidate knowledge. One of the most potent methods for strengthening neural connections is retrieval practice.
Unlike passive review, which simply involves re-reading or watching information, retrieval practice challenges students to pull information from their own minds. This process not only deepens conceptual understanding but also accelerates memory consolidation in the brain. Techniques like flashcards, jotting down key ideas – sometimes referred to as “jot recall” – and even a simple whip around the classroom encourage students to grapple with information independently, solidifying the neural pathways that support long-term learning. In addition to retrieval practice, active learning is another core strategy. This approach involves students in discussions, problem-solving, and hands-on activities, ensuring that they engage deeply with the content. Be careful though – active learning is not enough on its own.
It must lead to the consolidation of long-term memory. This process happens during “brain breaks,” brief pauses that allow the brain to strengthen new neural links. The short break offered by a think-pair-share activity – in which students think by themselves for a moment, then pair with a fellow student to share their understanding – can be enough to help the transfer of new information to the neocortex. For more procedural knowledge – like mastering a skill or task – specific practice techniques are necessary.
One of these is interleaving, which involves mixing different topics or types of problems during practice sessions. For instance, alternating between different grammar rules or types of math problems can create a “desirable difficulty” that enhances learning. Spaced repetition can complement this by spreading out retrieval practice over time, preventing forgetting, and reinforcing memory through intervals of days, weeks, or months. By integrating these methods, you can ensure the knowledge contained in your learning experiences is not only learned but retained.
Chapter 3: Differentiation and direct instruction
Understanding the differences in working memory capacity is equally key to effective teaching as understanding memory mechanics. In any classroom, you’ll find students who process information at varying speeds. Some are like race-cars, quick to absorb and assimilate information, while others are more like hikers, taking a slower, more scenic route to understanding. The challenge is that all students, regardless of their learning speed, have limited working memory – those four “balls” we unpacked in the first section.
Such nuance calls for differentiated strategies that meet each student’s needs without overwhelming or underwhelming them. For students with smaller working memory capacity – the “hikers” – scaffolding is a vital tool. This means providing temporary support to help them manage increasingly complex material. Effective scaffolding strategies include giving clear, concise instructions one at a time and using visual aids such as checklists or written instructions on the board. Mnemonic devices can also be beneficial in aiding memory recall, while pre-filled outlines or notes with gaps allow students to focus on processing information without the added strain of note-taking. For biologically secondary material – content like layered literature or advanced math that doesn’t come easy and requires effortful learning – direct instruction is essential.
Direct instruction involves structured, teacher-led teaching that breaks down complex material into smaller, more readily digestible parts. The “I do, we do, you do” model exemplifies direct instruction: first, the teacher demonstrates, then guides students through practice, before finally releasing them to practice independently. This active, adaptive, hands-on approach contrasts sharply with traditional lecture-based learning, ensuring that students receive guidance appropriate to their level of mastery, especially when difficult content and working memory limitations are at play. Being proactive about tailoring instruction to the varying capacities of your students can ensure that all learners feel supported throughout the learning journey, whether they travel at a race-car or hiker pace.
Chapter 4: Rules of engagement
Classroom management isn’t just about keeping order – it’s about setting up systems that foster consistent routines and build positive habits. When students know what to expect, routines become automatic, freeing up mental bandwidth for actual learning to take place. To this end, you’ll need to be explicit and consistent in how you reinforce classroom procedures, such as how to ask for help or submit assignments. This facilitates smoother sailing, allowing students to focus on the content rather than logistics.
Another powerful tool is the use of unexpected rewards. These unanticipated reinforcements – like spontaneous praise or a simple high-five – trigger the brain’s release of dopamine, which strengthens neural connections and makes learning more rewarding. Positive reinforcement can help keep students engaged, providing a motivational boost that reinforces their efforts. Procrastination, on the other hand, remains a perennial barrier to effective learning. Driven by the brain’s innate instinct to avoid discomfort, procrastination often surfaces when we’re faced with large, daunting tasks. To combat this, break assignments into smaller, more manageable chunks to help make tasks feel less overwhelming.
The Pomodoro Technique is another useful strategy, in which students work in focused, time-limited bursts – say, 25 minutes – followed by short mental breaks to reset, move their bodies, and take a water or bathroom break. Now we come to stress. Stress is a pernicious obstruction to effective learning – but not all of it. While distress is correctly seen as a negative in the classroom, eustress – moderate, short-term, growth-directed challenge – can actually enhance cognition, improve working memory, and boost learning by releasing beneficial neural chemicals. Harnessing this kind of stress, rather than avoiding it, can keep students alert and focused. To keep students in the eustress zone, try encouraging collaborative exercises.
Group work not only provides opportunities for socioemotional learning but also reduces distress by creating a sense of connection and support. For group work to offer these benefits, it must include clear roles and individual accountability, ensuring that everyone benefits from the collective effort. By integrating these strategies into the classroom, teachers not only improve learning but also help students develop better habits for life, such as reducing procrastination and thriving in collaboration.
Chapter 5: The online classroom
As we’ve seen, effective teaching depends on understanding how the brain learns, using strategies to engage students, and creating a supportive environment for them to thrive. The same principles apply when it comes to online learning and lesson planning. While teaching in the digital space presents new challenges, it also offers unique opportunities to leverage brain science in ways that can be just as effective – if not more so – than traditional, in-person instruction. The most important factor in successful online learning is instructor presence.
Without the physical cues of the classroom, students can easily become disengaged. To keep students focused and motivated, instructors need to maintain a visible presence through video. Short, well-crafted videos – around three to twelve minutes long – work best. A strong opening hook grabs attention, while a concise wrap-up helps place the material in context. When creating these videos, you can follow multimedia theory, which suggests that students absorb material best when it’s both seen and heard. Complex content should be presented step-by-step, with cues like arrows, circles, or highlights to guide focus.
And redundancy should be avoided. Don’t show text on the screen and read it aloud at the same time, as this can overwhelm students’ cognitive load. Managing attention and mood is equally critical. Online students are more easily distracted, so it’s important to capture their attention through unexpected elements, such as movement, sounds, and humor. Even a little humor can go a long way in keeping things light, boosting motivation, and reinforcing recall of the main takeaways. Finally, pay attention to how you organize the online course structure.
This is key to reducing confusion and maintaining engagement. An introductory screencast can walk students through the learning system’s layout, and regular communication – especially upbeat emails – can encourage students and parents alike. The inclusion of asynchronous tools, like quizzes and discussion boards, is great for further reinforcing material, encouraging retrieval practice, and increasing interaction with content and peers. When these strategies are thoughtfully integrated into online courses, virtual learning environments can truly become every bit as connected, inspiring, and supportive as physical ones.
Final summary
In this Blink to Uncommon Sense Teaching by Barbara Oakley, Beth Rogowsky, and Terrence J. Sejnowski, you’ve learned that the key to effective teaching lies in understanding how the brain learns. Learning isn’t passive – it’s an active process requiring the use of diverse systems to create lasting connections. By tailoring teaching methods to how the brain processes and stores information, we can make learning more meaningful and accessible for all students.
Techniques like retrieval practice, active learning, and differentiation help move information from short-term to long-term memory, where it truly sticks. This approach doesn’t just improve retention – it empowers students to engage with challenging material in ways that fit their unique learning styles. We can help students break through barriers, tackle procrastination, and unlock their full potential by aligning our lessons with the latest in neuroscience. With the right strategies, every student is capable of mastering new skills, overcoming challenges, and reaching their fullest potential. It’s all about working with, not against, how the brain learns. Okay, that’s it for this Blink.
We hope you enjoyed it. If you can, please take the time to leave us a rating – we always appreciate your feedback. See you in the next Blink!
About the Author
Barbara Oakley, PhD, is an engineer and educator recognized for her contributions to learning strategies and effective learning techniques. She is also the author of Mindshift and A Mind for Numbers. Beth Rogowsky, EdD, is an educator and researcher specializing in the intersection of cognitive science and teaching methods, with a focus on how neuroscience can improve classroom instruction. Terrence J. Sejnowski, PhD, is a neuroscientist and professor whose work on neural networks and brain function has helped shape the field of computational neuroscience. Sejnowski is also the co-author of Learning How to Learn.