# Want to improve your problem-solving skills? Try metacognition

*Today’s post is by Anne-Lise Prigent the editor in charge of education publications at OECD Publishing*

French poet Paul Valéry once expressed his love for mathematics: “I worship this most beautiful subject of all and I don’t care that my love remains unrequited.” Unrequited love, or, all too often, a big stumbling block that inspires fear and defiance, mathematics are usually not seen as an excuse to have fun. Yet, maths need not go hand in hand with anxiety.

Maths can help us acquire life skills that are essential. In today’s unpredictable world, all of life is problem solving. Our societies will need a critical mass of innovators who can not only communicate and collaborate but also think creatively and critically. Are students developing these high-order skills in maths class? Are they learning to solve complex, unfamiliar and non-routine tasks?

A new OECD publication, *Critical Maths for Innovative Societies: The Role of Metacognitive Pedagogies**,* shows that the time has come to introduce innovative instructional methods. The man behind the project is Stéphan Vincent-Lancrin, who worked with authors Zemira Mevarech and Bracha Kramarski. Faithful to the spirit of CERI (the OECD’s Centre for Educational Research and Innovation), Vincent-Lancrin rooted the report in CERI’s thorough knowledge of learning (*The Nature of Learning**, **Innovative Learning Environments*). How do we learn? Not by having cold sweats at the sight of an equation assuredly. Emotions play a key role in learning – our cognitive and emotional systems are intertwined in our brain. But do we ever learn how to learn?

College professors often point out that their students never learnt how to learn. Derek Cabrera was surprised to find that even the “cream of the crop of our education system” was not good at dealing with novel problems in unstructured assignments. As PISA shows, across OECD countries, about one in five students is able to solve only straightforward problems – if any – provided that they refer to familiar situations. Too often, we teach students *what* to think but not *how* to think.

Yet, there is an engine we can use for that and it is called metacognition, which means “thinking about your thinking”, and regulating it. Metacognitive pedagogies improve academic achievement: content knowledge and understanding, and the ability to handle routine and unfamiliar problems. And they also boost affective outcomes, reducing anxiety and improving motivation. Struggling students greatly benefit from these pedagogies, but not at the expense of higher achievers.

Metacognition is about taking ownership of your learning and maximising it. “It turns you from being a consumer of learning to being a researcher, a co-producer, an explorer and that’s a much more exciting, exhilarating world. You discover how to learn better” Stephen Heppell argues. He also points out that metacognition makes students “do 20% better – you get an extra Friday every week”.

How does it work? Among metacognitive pedagogies, the IMPROVE method is the most widely studied: **I**ntroducing the whole class to the new material, concepts, problems or procedures by modelling the activation of metacognitive processes. **M**etacognitive self-directed questioning applied in small groups or individualised settings. **P**ractising by employing the metacognitive questioning. **R**eviewing the new materials by the teacher and the students, using the metacognitive questioning. **O**btaining mastery on higher and lower cognitive processes. **V**erifying the acquisition of cognitive and metacognitive skills based on the use of feedback-corrective processes. **E**nrichment and remedial activities.

It helps learners build their own scaffolding: “What is the problem all about?”, “Have I solved problems like that before?”, “What strategies can I use?”, “Am I stuck, why? What additional information do I need? Can I solve the problem differently?”. The key is to ask ourselves questions that help us change our perspective and connect the dots in new ways.

In doing this, we inevitably make mistakes. And that’s good. Mistakes are data that help us perform better later. And co-operative learning makes these pedagogies even more efficient. Students using IMPROVE interact, share rich explanations, evaluate their peers’ solutions, correct mistakes, and learn. Communication in control groups may be dull – or altogether absent, but groups using IMPROVE discover a new, friendlier way of learning maths. They learn to learn and think creatively.

Now, are these pedagogies used in classrooms today? Not so much. Singapore – who excelled in PISA and TIMSS – is an interesting exception. Teachers there are trained to use metacognitive pedagogies explicitly in class. Singapore adopted metacognition in its mathematics curriculum for all school grade levels at the start of the 2000s.

From kindergarten to higher education, metacognitive pedagogies are effective across all levels. And they can easily be used in other domains (e.g. science) since the metacognitive questioning is generic. As Stéphan Vincent-Lancrin points out in the podcast below, there is a message for policy makers here. “If you want (…) less anxiety, more communication, a better understanding of maths, better reasoning etc., there are some interesting pedagogies which have already been tested.”

Metacognitive pedagogies are particularly effective for complex, unfamiliar and non-routine tasks, but they also work for routine tasks. However, it is time maths textbooks caught the 21st century train: 90% of the problems featured in these textbooks are routine problems.

It would also be interesting to explore whether metacognitive pedagogies could help decrease the gender gap. PISA 2012 revealed worrying gender differences in students’ attitudes towards mathematics. Girls report less openness to problem solving than boys, less perseverance, less belief in their own skills, and higher levels of maths anxiety – even when they perform as well as boys in maths.

Those who develop metacognitive skills will use them all their lives. As Howard Gardner puts it, “Those with flexible minds, with open minds, are at a distinct advantage overall. (…) So are those who know how their own mind works and can marshal that metacognition knowledge in cases where the course to pursue is not clear (…) The search of truth going forward must become ever more metacognitive. We can no longer trust our eyes or the spoken words of the nightly news (…) we must try to understand the truths about truth.”

A good example of this is the astonishing story of “the British amateur who debunked the mathematics of happiness”. Nick Brown, a first-term, first-year, part-time master’s student in his 50s, managed to prove America’s academic establishment wrong. How did he do that? He used metacognition: “the maths you need to understand the Losada system is hard but the maths you need to understand that this cannot possibly be true is relatively straightforward”, he argues. In the same way, the Wright brothers – two bicycle mechanics – invented the first airplane when they understood that aviation pioneer Lilienthal had got his maths wrong – although the scientific world had accepted his findings.

A sound judgment and perseverance. Resilience. As you walk through the valley of maths, have no fear. The grace of an algorithm can go a long way. And as you ponder the beauty of space geometry, mark Leibniz’s words: “Music is the pleasure that human minds experience with counting without realizing that they are counting” (Marcus du Sautoy). Counting on, Leibniz invented the calculus (not that Newton would agree, as both – curious – minds seem to have converged in their intellectual prowess). Moving on, let your metacognitive strides swing you past some pretty hefty hurdles – melodiously, mathematically.

*Critical maths: entretien avec Stéphan Vincent-Lancrin en français*

*Critical maths: interview with Stéphan Vincent-Lancrin*

**Useful links**

*Maths education for innovative societies* by Stéphan Vincent-Lancrin on the OECD educationtoday blog

*Related*

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You touched on the point that textbooks tend to offer mostly routine problems to solve but I wonder if another important aspect, linked to this, is that assessments are also largely routine and the main motivation for most students is getting a good grade at the end rather than the actual learning (unfortunate as that is).

We want students to explore, experiment, fail and learn from it and yet we create assessments which reward students for doing the exact opposite.

I wonder if we created assessments which rewarded students for the process of problem solving rather than the result would we get different outcomes?