Foreword
As scientists and engineers drive so much of our innovation and creation of
knowledge, high-quality science, technology, engineering, and mathematics
education is key to the success of advanced economies. Given its transversal nature,
mathematics education is a cornerstone of this agenda.
Beyond nurturing the talent of mathematicians, scientists and engineers, good
mathematics education can also foster the innovative capacities of the entire
student population, including creative skills, critical thinking, communication, team
work and self-confidence.
This book explores how to achieve these goals. Based on a review of state-ofthe-
art experimental and quasi-experimental research, it argues that new types of
problems should be featured in mathematics curricula, and shows that pedagogies
that emphasise metacognition have an impact on mathematics outcomes, including
mathematical reasoning, communication and math anxiety, from kindergarten to
university level.
Among the many findings of the book, two have especially caught my attention.
First, pedagogies that highlight metacognition are even more effective in collaborative
settings. Second, their effectiveness is enhanced when they address both the
“cognitive” and “emotional” dimensions of learning. Singapore has pioneered the
large-scale adoption of this approach, explicitly emphasising metacognition in its
maths curriculum. Interestingly, it is also one of the top performers in mathematics
and problem solving in OECD Programme for International Student Assessment
(PISA). That suggests that changes in pedagogy could better prepare students to
develop the kind of mathematical skills that they will need in more innovative
societies.
A complement to two recent books from the Centre for Educational Research and
Innovation (CERI), The Nature of Learning and Art for Art’s Sake?, this book is designed
to assist practitioners, curriculum developers and policy makers alike in preparing
today’s students for tomorrow’s world.