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April 20, 2007 by My 1985 book Mathematical Problem Solving offered a framework for analyzing how and why people are successful (or not) when they engage in problem solving - but, it didn't offer a theory that explained how and why people made the choices they did. Such a theory is now within reach. Solving a mathematical problem, teaching a lesson (or a year's course), and building a theory of problem solving are all examples of goal-directed behavior. I'll try to make a case that such behavior can be explained on the basis of models of individuals' knowledge, goals, beliefs, and a particular form of decision-making. In addition, this account will be consistent with what is known about learning and development, context and identity, and more.
by Despite increased attention given to African-American students in mathematics, few studies have explored the experiences of African-Americans who excel in mathematics and pursue undergraduate mathematics degrees. Borrowing elements from social, cultural, and personal factors identified in mathematics education research and factors from the college persistence literature relating to African-American students, this research study sought to understand the factors that shaped eight high-achieving African-American mathematics majors' decision to persist and succeed in mathematics. In particular, the study explored the ways in which these students perceived their own role, and the roles of family, educational institutions, and the community in their success. The data suggests that several factors were essential to these students' success in mathematics, including parental social and cultural capital, elementary school tracking, participation in elite academic programs, and participation in college scholarship programs. The participants' evolving social consciousness and spirituality provided a framework underlying their success and persistence in mathematics, particularly in college. In this colloquium, I plan to discuss some of the major findings of this research and their implications for mathematics educators, researchers and policy makers. I will also discuss how the study's findings can be used as a framework to guide future research on high achieving African-American students.
by Within mathematics education research and policy, race remains undertheorized in relation to mathematics learning and participation. While race is characterized in the sociological and critical theory literatures as socially and politically constructed with structural expressions, most studies of differential outcomes in mathematics education begin and end their analyses of race with static racial categories and group labels used for the sole purpose of disaggregating data. One consequence is a widely accepted, and largely uncontested, racial hierarchy of mathematical ability. Rather than challenging and deconstructing this hierarchy, many math educators take, or unwittingly accept, it as a natural starting point in their assumptions about learners, learning, and teaching. Disparities in achievement and persistence are then inadequately framed as reflecting race effects rather than as consequences of the racialized nature of students’ mathematical experiences. This inadequate framing is, itself, reflective of a racialization process that continues to legitimize the social devaluing and stigmatization of students identified as African American, Latino, and Native American and the privileging of students identified as White and Asian American. In this colloquium and paper discussion, I hope to foster a critical conversation and dialogue about how race has been addressed in mathematics education research, policy, and practice. Participants are asked to read the accompanying paper and prepare comments and questions.
by For many high school students, the real utility of mathematics lies in a style of work--the habits of mind that allow one to look at the world through a mathematical lens. This stance has implications for curriculum design. One benchmark for the choice of topics and approaches is that they help students develop specific mathematical ways of thinking. I will present a few examples of how this benchmark plays out in activities for high school students. The activities are designed in part because they promote important habits from analysis, algebra, and geometry. More precisely, we will take a look at ways to encourage "reasoning by continuity" and "abstracting regularity from repeated calculations," a form of encapsulation. by Marty Schnepp has been teaching for 19 years and has participated in both NSF-funded and other research projects. He and others have written about his teaching in a variety of places, including book chapters, conference proceedings, and national and international journals. In his talk, Marty will share brief episodes of his teaching, using these episodes as a backdrop for discussing how being a producer and consumer of math education literature influences his work with students and colleagues. Friday, October 27, 2006 Content Analysis and Lesson Analysis: Elements of a framework for the Design and Conduct of Pre-Service Mathematics Teacher Preparation 11:00 am - 12:00 pm Room 2121 Benjamin Building With discussion and complimentary lunch to follow by
Friday, October 13, 2006 Teachers’ Adjustment of Teaching Practice in Tracked Mathematics 11:00 am - 12:00 pm Room 2121 Benjamin Building With discussion and complimentary lunch to follow by
Friday, September 29, 2006 Parallel Tasks of Design Research and Theory Building: A Case from Statistical Data Analysis Room 2121 Benjamin Building
Room 2121 Benjamin Building by This talk provides an overview of the Inquiry-Oriented Differential Equations (IO-DE) project as an example of one approach to rethinking the learning and teaching of undergraduate mathematics. In the first part of the talk I highlight the theoretical underpinning for the IO-DE project. In particular, I outline how the project capitalizes on advances within mathematics and on advances within K-12 mathematics education, including the instructional design theory of Realistic Mathematics Education (RME) and the social negotiation of meaning. In the second part of the talk I report on the main results of a study that compared students’ beliefs, skills, and understandings in IO-DE classes to more conventional approaches. In the final part of the talk I address ways in which IO-DE teachers have met the challenge of inquiry-oriented teaching. Specifically, the notion of pedagogical content tool is put forth as a way to capture forms of teacher interventions that use students’ thinking and reasoning as a basis for the development of mathematical ideas. A pedagogical content tool is a device such as a graph, diagram, equation, or verbal statement that a teacher intentionally uses to connect to student thinking while moving the mathematical agenda forward. Two examples of pedagogical content tools are tendered: Transformational record and generative alternative. These two pedagogical content tools are instructional counterparts to the RME design heuristics of emergent models and guided reinvention, respectively.
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© 2006 Department of Curriculum and Instruction, College of Education, 2311 Benjamin Building, University of Maryland College Park, MD 20742-1115 TEL: 301-405-EDCI (3324) + FAX: 301.405.9055 + Webmaster October 23, 2006 |
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