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Ian Kelleher About Ian Kelleher

Dr. Ian Kelleher is Head of Research at the Center for Transformative Teaching and Learning at St. Andrew’s Episcopal School in Potomac, MD, in the suburbs of Washington DC. Ian grew up in Cambridge, UK. He went to the University of Manchester as an undergraduate, then returned to Cambridge to do a PhD. After this, Ian moved to the US where he spent six years teaching, coaching and dorm-parenting at Brooks School in North Andover, MA. He still drinks lots of tea and watches a good amount of English Premier League soccer. At St. Andrew’s, Ian teaches Chemistry, Physics and Robotics, and coaches soccer. Ian's work for the CTTL focuses on working with teachers to translate ideas from academic research into classroom practices, and developing ways to assess the impact of these brain based teaching and learning strategies. He creates and leads Mind, Brain and Education Science professional development programs. He also co-facilitates the CTTL”s “Creating Innovators through Design Thinking” workshop, and is responsible for the CTTL’s Teacher and Student Research Fellowship Program. Ian is co-author of the book “Neuroteach: brain science and the future of education”.

Neuromyth or Neurotruth?
Ian Kelleher
Ian Kelleher

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In the spirit of April Fool’s Day, I thought it would be fun to consider several of the false — even foolish — beliefs that people often have about brains. Take a look at the six statements below and judge whether each is true or false – a learning fact or a learning myth. Then, after the brain break in the middle of the article, check out the answers. Enjoy.

  1. Hemispheric dominance in the brain means some people are dominantly left brained (more analytical), while some are dominantly right brained (more creative)
  1. Some people are kinesthetic learners, some are auditory learners, and some are visual learners.
  1. Lecture is an outmoded form of teaching
  1. Male and female brains are significantly different
  1. Typing notes in class is just as effective as handwriting them
  1. Rereading notes is a good way to prepare for a test, so teachers should actively coach this skill
Wonderful World of Teaching
The Wonderful World of Teaching, by Joe Wolf

 

  1. False: There is no such thing as left/right brain dominance. All thinking tasks involve multiple parts of the brain working together in a coordinated way – some on the left side, some on the right. This coordination is helped by a massive group of fibers called the corpus callosum that links the two sides.
  1. False: each student has different current strengths and weaknesses, and it is good for students and teachers to be aware of these. But research suggests that labels like “kinesthetic learner” are harmful because they can become self-fulfilling prophecies. In fact, neuroplasticity means that current strengths and weaknesses can change over time with the thoughtful use of strategies. [1]
  1. False: Core knowledge is a fundamental part of any learning episode. Lecture is one method to use to help build this core knowledge. But to be effective, it should be used strategically, and in conjunction with other methods. In particular, teacher should use strategies that require students to recall knowledge, such as formative assessments, and ones that require students to use the knowledge in a novel context. The goal is to build knowledge that is durable and flexible. 
  2. False: Though there may be subtle differences between male and female brains, the normal and natural range of differences within each gender is far, far greater than the differences between them. There is absolutely no significant evidence to suggest that the genders learn or should be taught differently. This myth might stem from a misinterpretation of books such as The Essential Difference: Men, Women, and the Extreme Male Brain, which focused largely on patients with autism. [2]
  1. False (for most people): “Because handwriting is slower, we are forced to interpret and paraphrase what a speaker says instead of simply producing a transcript. This act of synthesis leads to better semantic processing, which means that schematic changes to long-term memory are likely to be taking place as notes are taken. Typing, because it demands less of us, results in less change to long-term memory.” [3]

 

  1. False: Rereading is not the best method because it can give “the illusion of fluency” – students become familiar with the words and think they “get it” when they might not. Research suggests that active recall methods:
  • getting out a piece of paper and writing out everything you know then checking your notes,
  • repeatedly working on practice questions, checking your answers, then checking your notes.

How did you do? Anyone get 6 out of 6? I know, it was a bit cheeky to give you six false ones.  Whilst this is a bit of fun, these perhaps trivial sounding statements can have profound effects on learning – and all are easy to address.

Numbers 1, 2 and 4 lead to students defining themselves in limiting ways that often become self-fulfilling prophecies. “I can’t do that, because my brain or my learning style is like this.”

All students — from the academic high fliers to those with learning challenges — are good at some cognitive demands and weaker at others. And it is good to know these. But it is important to remember that they are current strengths and weaknesses. Neuroplasticity means that each student’s brain is constantly rewiring – an interplay of genetic coding and the environment it is experiencing. The reflective, iterative use of strategies, played out over time, is a powerful thing. Hard work plus strategic work is a brain changer.

At St. Andrew’s, we often get students arriving from other schools who have suffered for years from being told that they are, say, a visual learner or a left brained person — so much so that they initially shy away from certain tasks believing that failure is certain because they are just not that kind of learner.

But in a community that refuses to believe these neuromyths, that challenges students to work at finding strategies in all areas that work for them, a magic happens. We see students not just taking risks in areas that they had previously shut off, we see them develop a self-awareness that they are that much more whole of a person. And this brings a happiness and confidence that is well earned.

Numbers 3, 5 and 6 are simple traps that we can find ourselves walking into, in part because there is so much brain-rubbish out there. Sometimes the classic methods are still great methods – but it helps to use them with the added wisdom that they are just the right thing at just the right time.

I recently told my students the story of how the profession of teaching’s reluctance to use research evidence to inform practice is a bit like going to your doctor and having them get out a jar of leeches. Aidan immediately said to me, “You know, Dr. Kelleher, leeches are still used in medicine for some things, like cleaning up tissue in certain kinds of surgery.” A great riposte!

But I think it just aids the metaphor. Much of the classic repertoire of teaching is still great, and well supported by research evidence. But we need to know what is and what isn’t. Leeches might still be the best tool available, but we need to know where to use them, are where to employ methods that might result in a better outcome.

Most importantly, though, these six things are simple ways to use research to inform your practice. Beginning your journey as a research informed teacher is actually quite easy – just take these six things on board. Then pass them on, the word needs to be spread. As ever, if the answers are problematic to you, or raise more questions, please get in touch.

[Editor’s note: if you’d like to see my own thoughts on typing vs. handwriting notes, click here. The short version: I think that–if done correctly–laptop notes will be as effective as handwritten notes; and that researchers who claim the contrary are dramatically overinterpreting their data.]
  1. Pashler, H., McDaniel, M., Rohrer, D., & Bjork, R. (2008). Learning styles concepts and evidence. Psychological Science in the Public Interest, 9(3), 105-119. [link]
  2. For an easy read into this subject: Eliot, L. (2010). Pink brain, blue brain: How small differences grow into troublesome gaps — and what we can do about it. Boston: Mariner Books.
  3. David Didau, @LearningSpy, Human’s Can’t Mutitask [link

It Ain’t What You Know, It’s…Oh, No, Sorry, It IS What You Know
Ian Kelleher
Ian Kelleher

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I sense that the tide is beginning to turn on the knowledge-versus-skills debate, ‘21st Century’ or otherwise. There is an increasingly confident voice shouting a phrase that teachers have shouted for the few thousands of years that there have been teachers: knowledge is really important.

Yes, even in this Googleable world, knowledge is important. We could patiently wait for the “importance of knowledge” pendulum to swing back, or we could, as evidence-informed professionals, boldly provide an epistemic nudge [1].

This post is a concise argument for the importance of knowledge, and offers some research informed ideas for teachers on how to build it.

I recently heard Robert Pondisco, senior fellow at the Thomas B. Fordham Institute, give a wonderful talk at ResearchED DC on the importance of a recommitment to teaching knowledge. During his talk, Pondisco eloquently painted the picture of President Obama during his first Inaugural Address, glancing down the length of the Mall to the Lincoln Memorial where Martin Luther King Jr. said those famous words not that long ago.

And then Obama delivered the words in this clip. It was a powerful moment in American history. And Pondisco posed the question: what knowledge would children need to have to understand the significance of these words at this moment? Would they have this knowledge? How would they have got in? Who might have it and who might not? How does this fit in the existing inequality gap? Pondisco’s questions offer a fascinating thought experiment into the importance of knowledge.

Acknowledge the limits of active working memory

Active working memory can hold fewer things for less time than most people realize. Though it is hard to measure, 7 things for 30 seconds for adults is a well agreed upon estimate [2]. For children the numbers are lower. And there is a trade off too – we can hold more things but for progressively less time.

How do these limitations fit my argument?

Having knowledge stored in long term memory frees up the active working memory to more effectively help with higher order thinking tasks. In other words, having stored knowledge helps us think.

Even project based learning needs knowledge

What about things like project based learning (PBL): the antithesis of the “lecture, lecture, test” mode of teaching? How important is it to be very purposeful in teaching knowledge when we want students to be on a voyage of independent exploration? It turns out that explicitly teaching knowledge in very deliberate ways is extremely important for PBL: make-or-break important, in fact.

I will tuck deeply into the deficiencies of PBL at a later date. But the crux of the research-supported argument is that for project based learning to have any measure of success, independent inquiry needs to be balanced with didactic instruction. Without foundational information, students lack sufficient knowledge and skills to be able to engage with the task.

In fact, failing to provide adequate support for knowledge and skills may actually contribute to the achievement gap, as students from disadvantaged backgrounds often enter school with deficiencies in knowledge and skills that are necessary for success in the project [3, 4, 5].

Part of pedagogical content knowledge, that highly interlinked combination of subject knowledge and how to teach it, is to know exactly what knowledge scaffolding students need in order to successfully launch into a project. So if we want to create great projects, which we do, we also need to be great at teaching knowledge – and great at discerning what knowledge that needs to be.

Teaching for stickiness

No matter where in the spectrum from direct-instruction-focused to project-focused we happen to be teaching, we need to get content knowledge to reliably stick in long-term memory. Fortunately there is robust research to guide us here. It suggests both things we should do and should not do.

Things Not To Do

(1) rereading notes

A trip down the aisles of Staples in August confirms what we already know – students love highlighters. But research suggests that the staple of studying, rereading notes or the textbook, is a terrible way to study. It tends to lead to what Brown, Roediger and McDaniel call “the illusion of fluency” [6], where students become so familiar with the text that they believe they know it before they actually do.

HIghlight

(2) misusing flashcards

Similarly, students tend to use flashcards in entirely the wrong way – which is hard for such a simple device. They tend to turn them over too quickly to see the answer. The key part is how one lingers in the moment of not knowing. The key part is the moment before you turn it over. Flashcards work best when students ponder difficult questions, even when the answers prove elusive.

Things To Do

(1) retrieval practice

Retrieval practice is this idea of trying to recall knowledge from memory. Even if a student is unable to, research suggests that the act of trying helps memory storage and recall. Retrieval practice can take many forms: self testing, proper use of flashcards or online tools such as Quizlet, or taking a sheet of paper and writing out everything you know on a subject.

But I am sure you can be creative and add to this list. The key is having students try deeply to recall, then  having them check this against their notes or model answers.

(2) spacing

There is great research around the spacing effect. That is, students should study, leave a gap, then study again. We can, for example, coach students to space their studying rather than use massed studying. Massed studying does not lead to durable learning.

Instead, allowing your memory to get a bit rusty between study sessions makes the next study session more challenging. In doing so, it helps create knowledge that is both more durable and more flexible. This is a concept that Clark and Bjork call “desirable difficulty” [7].

But what is the optimal spacing gap for your students, your subject, and the content you are teaching? This is a great idea for you to play with and do your own disciplined inquiry. (You might check out Scott MacClintic’s forthcoming article on gathering classroom data for suggestions.)

(3) formative assessments

Replace pop quizzes with no- or low-stakes formative assessments. As you give these quizzes, say something along the lines of, “this is for you to figure out where you are, for me to figure out where you are, and for us both to adjust what we do accordingly.” This technique is retrieval practice plus. A further benefit is that more of the brain restructuring associated with learning occurs when we struggle and when we get things wrong [8, 9]. Getting things wrong is an important part of learning, and we need to craft no- or low-stress opportunities for this to happen.

(4) interleaving

Interleaving is a way to deliberately build the spacing effect into how you design your courses. Instead of starting the year with unit one, followed, perhaps, by unit two then unit three, there is an alternative way to organize things that will promote learning. After moving on to a new unit, plan on revisiting the core knowledge at least a couple more times at spaced intervals later on [10].

(5) pre-testing

“Research suggests that starting a unit of study with a pre-test helps create more enduring learning. It appears to give students something on which to hang subsequent information. This test should, of course, not be graded, or if it is, it should be graded for effort rather than correctness.

The other point of this pre-test is to give the teacher an idea of where the level of the class generally is, and what knowledge each individual student brings with them already, so that the teacher can tailor subsequent classes to best match the needs of the class. It is important to avoid seeding boredom, and to avoid the potential skipping of foundational knowledge that could prevent future learning. These are two common toxic effects on learning” [11].

A thought on how these suggestions link to assessment

Since a little kid, I have always enjoyed words. Some are more fun to play with than others, of course, but one of the best is ‘facile.’ We often use it to refer to someone who appears so good at something they do it with an effortless ease. But its more nuanced meaning is to refer to a demonstration of thinking that at first glance seems neat, concise and elegant, but which on closer inspection is only neat, concise and elegant because it is oversimplistic, itself lacking in nuanced details.

So this article, I believe, leads us to a future one that needs to be written: how do we avoid facile demonstrations of knowledge by our students? How do we craft assessments that steer students away from this? Or, as Rob Coe and David Didau put it, where will students think hard in this lesson? But in the time before this second article is written, I encourage you to explore this idea yourself. And if you have ideas as to what should go in such an article, please let us know.

 

  1. Thank you, Troy Dahlke, for this playful term
  2. Cowan, N. (2008). What are the differences between long-term, short-term, and working memory?. Progress in Brain Research, 169, 323-338. [link]
  3. Education Endowment Foundation Analysis [link]
  4. Kirschner, P. A., Sweller, J., & Clark, R. E. (2006). Why minimal guidance during instruction does not work: An analysis of the failure of constructivist, discovery, problem-based, experiential, and inquiry-based teaching. Educational Psychologist, 41(2), 75-86. [link]
  5. Kirschner, P. A., & van Merriënboer, J. J. (2013). Do learners really know best? Urban legends in education. Educational psychologist, 48(3), 169-183. [link]
  6. Brown, P. C., Roediher, H. L., & McDaniel, M. A. (2014). Make it stick: The science of successful learning. Cambridge: The Belknap Press of Harvard University Press.
  7. Clark, C. M., & Bjork, R. A. (2014). When and why introducing difficulties and errors can enhance instruction. In V. A. Benassi, C. E. Overson, & C. M. Hakala (Eds.), Applying the Science of Learning in Education: Infusing psychological science into the curriculum.  [link
  8. See this accessible research summary from Robert Bjork at UCLA
  9. Moser, J. S., Schroder, H. S., Heeter, C., Moran, T. P., & Lee, Y. H. (2011). Mind Your Errors Evidence for a Neural Mechanism Linking Growth Mind-Set to Adaptive Posterror Adjustments. Psychological Science21(2), 1484-1489. [link]
  10. Blasiman, R. N. (2016). Distributed Concept Reviews Improve Exam Performance. Teaching of Psychology44(1), 46-50. [link]
  11. Whitman, G. and Kelleher, I. (2016). Neuroteach: Brain science and the future of education. Lanham: Rowman & Littlefield.