There has been much discussion recognizing the critical importance of math instruction and the best ways to engage students. In our research on ways to nurture independent learners, we have developed a pedagogical model that provides some guidance on how to achieve these goals. The Model highlights three core instructional tasks for math teachers to get better performance outcomes in their students.
First. Teachers must determine what the simple and later complex Math skills and accompanying understanding that their students need to acquire. At the same time, Math teachers need to make clear to their students "why" they are being asked to learn these skills, and how will they be able to tell if they learned these skills. In order to achieve these pedagogical objectives, teachers need to choose the math tasks carefully along a dimension of varying difficulty skill level. Similar to teaching someone to ski downhill at different levels of difficulty, students in math classes need to be able to choose and work on math tasks that are slightly beyond their current level of competence (a zone of proximal development). Our X axis—Acquiring the Skills and Vocabulary Dimension for Math.
Second. Students must transition between acquiring new math skills, consolidating these new skills through planned practice, and reach the point that they can teach these skills to others and monitor their own performance—i.e. consulting about the newly acquired skills. In order to accomplish these pedagogical objectives, math teachers have to planfully engineer student learning opportunities so their students can move from being novices to developing a level of mastery that frees up the students' mental capacities. The Math teachers will know that their instructional strategies have been effective when their students can not only perform new math tasks, but the students can also teach these skills to others, as well as to themselves. Asking students to incorporate writing. journaling and oral presentation enhance the students’ “expertise”. In short, how can teachers have their students become their own teachers? Our Y axis—Self-Direction Dimension.
Third. Students must become increasingly able to apply new math skills to near transfer (problems similar to instructional examples) and then apply their new skills to more novel problems—far transfer. What do teachers need to do in order to increase that their students will be able and likely to use the math skills on their own over time and settings? How can Math teachers have their students take their voice with them and take ownership of the skills and understanding which were the instruction goals? Our Z axis—Planning/Application Complexity Dimension.
We suggest two strategies to accomplish these objectives:
Figure 1 provides a pictorial account of these three tasks. In short, if math teach can move their students across the x axis (the acquiring educational skills dimension), up the y axis (the self-direction dimension), and out and back across the z axis (planning application complexity dimension), their students could have a better chance of becoming more efficient learners.
Biemiller, A., & Meichenbaum, D. (1992/2017). The nature and nurture of student expertise. Educational Leadership 50 (Oct.), 70-75. Reprinted in D. Meichenbaum, The Evolution of Cognitive Behavior Therapy: A Personal and Professional Journey with Don Meichenbaum.
Meichenbaum D. & Biemiller, A. (1998). Nurturing Independent Learners, Helping Students Take Control of Their Education. Cambridge, MA: Brookline Books.
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