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Chris L. Yuen (SUNY University at Buffalo, USA) and Veronika Bohac Clarke (University of Calgary, Canada)

Source Title: Handbook of Research on Active Learning and the Flipped Classroom Model in the Digital Age

Copyright: © 2016
|Pages: 18
DOI: 10.4018/978-1-4666-9680-8.ch009

Chapter Preview

TopIn Sir Francis Bacon’s (1597)*Meditationes Sacrae*, “*ipsa scientia potestas est*” translates to “knowledge itself is power.” Sir Bacon had the insight that the quest for knowledge give learners power throughout the learning process to take control and make use of their ideas. Sadly, such instances of taking control are few and far between for modern day school mathematics learners, who are bogged down by state standards and arguably excessive standardized testing. This book chapter argues and advocates a respectful space in the learning environment so that active pursuit in mathematics learning can indeed empower the learner to sustain future active learning. Based on the mindful experience of one of the authors, we will examine the meaning of active learning through a fourfold learning dynamic, corresponding to the four quadrants in the Wilber’s Integral Model, which will be elaborated on in Figure 1.

A rubric of four continua in the UL, UR, LL, and LR quadrants describing active learning within the framework of Wilber’s Integral Model

To examine these notions we will use three established models: Renert and Davis (2010) five stages of mathematics, Edwards’ (2005) integral learning, and Wilber’s All Quadrant All Level (AQAL) Integral Model. The three models are used to explain: “What constitutes mathematics?”, “How can mathematics be learned?”, and “How can learning dynamics be thoroughly and integrally examined?” The examples and illustration of mathematics learning are all drawn from the experience of one college level developmental mathematics and calculus teacher. The students described in this chapter include both the traditional college learners who attended college immediately after high school graduation, as well as the non-traditional college learners who returned to college after a hiatus from formal education since their high school graduation. The results of the examination will have both empirical and theoretical implications. The research account of the author Yuen, a college math instructor, who attempted to engage his students in a genuine learning process, is based on his mindful observations and reflections of what was happening in his classroom. We describe Yuen’s observations first in the context of his individual classroom, and subsequently we discuss how to be mindful of a student’s learning space as well as the social learning environment, in order to foster active learning in a mathematics classroom.

TopIn the context of classroom mathematics instruction, a sociologist might ask why the subject of mathematics seems to have an overall reputation of being stubborn to learn. A psychologist might ask why individual learners suffer from mathematics anxiety. An educator might ask how to best facilitate mathematics instruction. And for individual learners, what should they ask about their mathematics learning? Most ask, “Is that the right answer?” The author Yuen has been teaching mathematics professionally for 15 years, during which time not one single student has ever posed the questions: “What does it mean to do math?” or, “What is math?” Suppose a learner *does* know what it means to do mathematics, then this knowledge could serve as a prerequisite for active learning. In other words, there is a possibility for active learning to take place when the learner knows what he/she is doing. However, it is unclear whether many mathematics learners *do* have a clear idea what mathematics means. Does using a formula mean doing mathematics? Does solving an equation mean doing mathematics? How does an educator constructively instill in learners and empower them with the prerequisite of what mathematics could mean to them and to the academic community as a whole?

AQAL: Stands for “All Quadrants All Levels,” but it also extends to the idea of “all quadrants, all levels, all lines, all states, and all types” and it refers to the comprehensiveness and integrity of approaching to a phenomenon.

Stages or Mentalities of Mathematics: Developed by Renert and Davis, referring to the different types of mathematics taxonomized based on the extent of formality, style, and abstraction of mathematical ideas, objects, conjectures, and theorems.

Mathematical Concept: Focuses on the concept and the inner workings of a mathematical idea, essentially the prototypical response to “Why does a mathematical idea work in this fashion?”

Quadrants: UR, UL, LR, LL (in Integral Theory): The four co-arising perspectives (individual-interior, individual-exterior, collective-interior, and collective-exterior), each irreducible, with its own valid claim, and with its mode of investigation.

Mathematical Procedure: Focuses on step-wise nuances of solving mathematical problems and the presentation of solutions, essentially the prototypical response to “how to solve a mathematical problem?”

Mindful Mathematics Teacher: The careful observations of the learning, in all its modes, as it happens minute by minute in the classroom, requires a degree of mindfulness on the part of the teacher.

Levels (in Integral Model): The complexity of the psychosocial phenomenon in each of the basic quadrants, generally referred to as the levels of developments in the left-hand quadrants and the levels of complexities in the right-hand quadrants.

Integral Learning (Edwards): A model describing learning as a cyclical process in which conceptual and behavioral knowledge is acquired through a number of iterative phases. The model consists of four learning strands, each corresponds to the four quadrants in the Integral Model.

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