Current and Future Perspectives of Ethnomathematics As a Program ICME-13 Topical Surveys
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Ethnomathematics and the Aboriginal Leadership Year (--THIS SECTION DOES NOT PRINT--)
QUICK DESIGN GUIDE QUICK TIPS (--THIS SECTION DOES NOT PRINT--) Ethnomathematics and the Aboriginal Leadership Year (--THIS SECTION DOES NOT PRINT--) This PowerPoint 2007 template produces a 36”x48” This PowerPoint template requires basic PowerPoint professional poster. It will save you valuable time Dr. Bernadette Dececchi (version 2007 or newer) skills. Below is a list of placing titles, subtitles, text, and graphics. commonly asked questions specific to this template. Ms. Michela Ferguson If you are using an older version of PowerPoint some Use it to create your presentation. Then send it to template features may not work properly. PosterPresentations.com for premium quality, same day affordable printing. students were below the requirements of even the remedial class. Instead of starting Using the template BACKGROUND at the level where the students were functioning and bringing them to a more acceptable level, the students were expected to function at the level of the class We provide a series of online tutorials that will The Aboriginal Leadership Opportunity Year (ALOY) is a one year opportunity for more in line with year one classes. These students were lost and had a hard time Verifying the quality of your graphics guide you through the poster design process and selected First Nations, Inuit and Métis Aboriginal candidates from across Canada to following and had lost confidence I their ability to do well. This reinforced the feeling attend the Royal Military College of Canada (RMCC) in Kingston. At RMCC the that they were unable to do mathematics, as they were failing the remedial Go to the VIEW menu and click on ZOOM to set your answer your poster production questions. -
Arismendi-Pardi, Eduardo Jesus What Is Ethnomathematics And
DOCUMENT RESUME ED 430 804 SE 062 589 AUTHOR Arismendi-Pardi, Eduardo Jesus TITLE What Is Ethnomathematics and Why Should We Teach It? Crossing Cultures: Communicating through the Curriculum. PUB DATE 1999-04-00 NOTE 18p.; Paper presented to the National Conference of the Center for the Study of Diversity in Teaching and Learning in Higher Education (San Diego, CA, April, 1999). PUB TYPE Opinion Papers (120)-- Speeches/Meeting Papers (150) EDRS PRICE MF01/PC01 Plus Postage. DESCRIPTORS *Cultural Awareness; *Cultural Enrichment; *Curriculum Development; *Ethnography; Higher Education; Learning Strategies; *Mathematics Instruction; Teaching Methods IDENTIFIERS *Ethnomathematics ABSTRACT This paper defines ethnomathematics and reviews the methods used to incorporate this philosophy into the current teaching of mathematics. Ethnomathematics rejects inequity, arrogance, and bigotry while challenging the Eurocentric bias that denies the mathematical contributions and rigor of other cultures. A review of the literature shows that the teaching of ethnomathematics will bring awareness to students that Europe is not now nor was it ever the center of civilization. Ultimately, this methodwill present an accurate history of mathematics, use a variety of examples tosolve problems from a variety of cultures, and recognize that learning mathematics is a unique process for every individual. (CCM) ******************************************************************************** * Reproductions supplied by EDRS are the best that can be made * * from the original document. * ******************************************************************************** WHAT IS ETHNOMATHEMATICS AND WHY SHOULDWE TEACH IT? Crossing Cultures: Communicating Through the Curriculum U.S. DEPARTMENT OF EDUCATION PERMISSION TO REPRODUCE AND Office of Educational Research and Improvement DISSEMINATE THIS MATERIAL HAS E UCATIONAL RESOURCES INFORMATION BEEN GRANTED BY CENTER (ERIC) frpitni1ocument has been reproduced as received from the person or organization originating it. -
Speaker Biographies June 29, 2021
Summit on Diversity, Equity, Inclusion, and Anti-Racism in 21st Century STEMM Organizations June 29-30, 2021 | Virtual Event Speaker Biographies June 29, 2021: The systemic and structural nature of racism and bias Welcoming Remarks John L. Anderson is president of the National Academy of Engineering since July 1, 2019. He was born in Wilmington, DE, and received his undergraduate degree from the University of Delaware in 1967 and PhD degree from the University of Illinois at Urbana-Champaign in 1971, both in chemical engineering. He was most recently Distinguished Professor of Chemical Engineering and president (2007–2015) of the Illinois Institute of Technology (IIT). Before that he was provost and executive vice president at Case Western Reserve University (2004–2007), following 28 years at Carnegie Mellon University, including 8 years as dean of the College of Engineering and 11 years as head of the Chemical Engineering Department. He began his professional career as an assistant professor of chemical engineering at Cornell University (1971–1976). Dr. Anderson was elected to the NAE in 1992 for contributions to the understanding of colloidal hydro-dynamics and membrane transport phenomena and was elected an NAE councillor in 2015. His service also includes numerous National Academies activities, such as the Committee on Determining Basic Research Needs to Interrupt the Improvised Explosive Device Delivery Chain (chair); Committee on Review of Existing and Potential Standoff Explosives Detection Techniques (chair); Organizing Committee for the National Security and Homeland Defense Workshop (cochair); Board on Chemical Sciences and Technology (cochair); and Ford Foundation Minority Postdoctoral Review Panel on Physical Sciences, Mathematics, and Engineering. -
Ethnomathematics and Education in Africa
Copyright ©2014 by Paulus Gerdes www.lulu.com http://www.lulu.com/spotlight/pgerdes 2 Paulus Gerdes Second edition: ISTEG Belo Horizonte Boane Mozambique 2014 3 First Edition (January 1995): Institutionen för Internationell Pedagogik (Institute of International Education) Stockholms Universitet (University of Stockholm) Report 97 Second Edition (January 2014): Instituto Superior de Tecnologias e Gestão (ISTEG) (Higher Institute for Technology and Management) Av. de Namaacha 188, Belo Horizonte, Boane, Mozambique Distributed by: www.lulu.com http://www.lulu.com/spotlight/pgerdes Author: Paulus Gerdes African Academy of Sciences & ISTEG, Mozambique C.P. 915, Maputo, Mozambique ([email protected]) Photograph on the front cover: Detail of a Tonga basket acquired, in January 2014, by the author in Inhambane, Mozambique 4 CONTENTS page Preface (2014) 11 Chapter 1: Introduction 13 Chapter 2: Ethnomathematical research: preparing a 19 response to a major challenge to mathematics education in Africa Societal and educational background 19 A major challenge to mathematics education 21 Ethnomathematics Research Project in Mozambique 23 Chapter 3: On the concept of ethnomathematics 29 Ethnographers on ethnoscience 29 Genesis of the concept of ethnomathematics among 31 mathematicians and mathematics teachers Concept, accent or movement? 34 Bibliography 39 Chapter 4: How to recognize hidden geometrical thinking: 45 a contribution to the development of an anthropology of mathematics Confrontation 45 Introduction 46 First example 47 Second example -
Radical Love As Praxis: Ethnic Studies and Teaching Mathematics for Collective Liberation
Journal of Urban Mathematics Education May 2021, Vol. 14, No. 1, pp. 71–95 ©JUME. https://journals.tdl.org/jume Radical Love as Praxis: Ethnic Studies and Teaching Mathematics for Collective Liberation Cathery Yeh Ricardo Martinez Chapman University University of Nebraska–Lincoln Sarah Rezvi Shraddha Shirude University of Illinois at Chicago Seattle Public Schools Ethnic studies is a growing movement for curricular and pedagogical practices that reclaim marginalized voices and histories and create spaces of healing for students of color; however, its application to mathematics education has been limited. In this essay, we provide a framework of five ethea of ethnic studies for mathematics education: identity, narratives, and agency; power and oppression; community and solidarity; resistance and liberation; and intersectionality and multiplicity. We de- scribe key concepts and examples of the ethos of ethnic studies. KEYWORDS: ethnic studies, love, mathematics for liberation, transformative resistance CATHERY YEH is an Assistant Professor at Chapman University in the Attallah College of Educational Studies, 1 University Dr., Orange, CA 92866; email: [email protected]. Her re- search focuses on critical mathematics education, humanizing practices, ethnic studies, and social justice teaching and organizing. RICARDO MARTINEZ is Assistant Professor in Mathematics Education in the Department of Teaching, Learning and Teacher Education at the University of Nebraska–Lincoln, 1430 Vine St., Lincoln, NE 68505; email: [email protected]. His research centers on paradigms of critical youth studies in mathematics education. SARAH REZVI is a doctoral student at the University of Illinois at Chicago in the College of Education, 1040 W. Harrison St., Chicago, IL 60607; email: [email protected]. -
On Mathematics As Sense- Making: an Informalattack on the Unfortunate Divorce of Formal and Informal Mathematics
On Mathematics as Sense Making: An InformalAttack On the Unfortunate Divorce of Formal and Informal 16 Mathematics Alan H. Schoenfeld The University of California-Berkeley This chapter explores the ways that mathematics is understood and used in our culture and the role that schooling plays in shaping those mathematical under standings. One of its goals is to blur the boundaries between forma] and informal mathematics: to indicate that, in real mathematical thinking, formal and informal reasoning are deeply intertwined. I begin, however, by briefly putting on the formalist's hat and defining formal reasoning. As any formalist will tell you, it helps to know what the boundaries are before you try to blur them. PROLOGUE: ON THE LIMITS AND PURITY OF FORMAL REASONING QUA FORMAL REASONING To get to the heart of the matter, formal systems do not denote; that is, formal systems in mathematics are not about anything. Formal systems consist of sets of symbols and rules for manipulating them. As long as you play by the rules, the results are valid within the system. But if you try to apply these systems to something from the real world (or something else), you no longer engage in formal reasoning. You are applying the mathematics at that point. Caveat emp tor: the end result is only as good as the application process. Perhaps the clearest example is geometry. Insofar as most people are con cerned, the plane or solid (Euclidean) geometry studied in secondary school provides a mathematical description of the world they live in and of the way the world must be. -
Open Dissertation Draft Revised Final.Pdf
The Pennsylvania State University The Graduate School ICT AND STEM EDUCATION AT THE COLONIAL BORDER: A POSTCOLONIAL COMPUTING PERSPECTIVE OF INDIGENOUS CULTURAL INTEGRATION INTO ICT AND STEM OUTREACH IN BRITISH COLUMBIA A Dissertation in Information Sciences and Technology by Richard Canevez © 2020 Richard Canevez Submitted in Partial Fulfillment of the Requirements for the Degree of Doctor of Philosophy December 2020 ii The dissertation of Richard Canevez was reviewed and approved by the following: Carleen Maitland Associate Professor of Information Sciences and Technology Dissertation Advisor Chair of Committee Daniel Susser Assistant Professor of Information Sciences and Technology and Philosophy Lynette (Kvasny) Yarger Associate Professor of Information Sciences and Technology Craig Campbell Assistant Teaching Professor of Education (Lifelong Learning and Adult Education) Mary Beth Rosson Professor of Information Sciences and Technology Director of Graduate Programs iii ABSTRACT Information and communication technologies (ICTs) have achieved a global reach, particularly in social groups within the ‘Global North,’ such as those within the province of British Columbia (BC), Canada. It has produced the need for a computing workforce, and increasingly, diversity is becoming an integral aspect of that workforce. Today, educational outreach programs with ICT components that are extending education to Indigenous communities in BC are charting a new direction in crossing the cultural barrier in education by tailoring their curricula to distinct Indigenous cultures, commonly within broader science, technology, engineering, and mathematics (STEM) initiatives. These efforts require examination, as they integrate Indigenous cultural material and guidance into what has been a largely Euro-Western-centric domain of education. Postcolonial computing theory provides a lens through which this integration can be investigated, connecting technological development and education disciplines within the parallel goals of cross-cultural, cross-colonial humanitarian development. -
Mathematics in Informal Learning Environments: a Summary of the Literature
MATHEMATICS IN INFORMAL LEARNING ENVIRONMENTS: A SUMMARY OF THE LITERATURE Scott Pattison, Andee Rubin, Tracey Wright Updated March 2017 Research on mathematical reasoning and learning has long been a central part of the classroom and formal education literature (e.g., National Research Council, 2001, 2005). However, much less attention has been paid to how children and adults engage with and learn about math outside of school, including everyday settings and designed informal learning environments, such as interactive math exhibits in science centers. With the growing recognition of the importance of informal STEM education (National Research Council, 2009, 2015), researchers, educators, and policymakers are paying more attention to how these experiences might support mathematical thinking and learning and contribute to the broader goal of ensuring healthy, sustainable, economically vibrant communities in this increasingly STEM-rich world. To support these efforts, we conducted a literature review of research on mathematical thinking and learning outside the classroom, in everyday settings and designed informal learning environments. This work was part of the NSF-funded Math in the Making project, led by TERC and the Institute for Learning Innovation and designed to advance researchers’ and educators’ understanding of how to highlight and enhance the mathematics in making experiences.1 Recognizing that the successful integration of mathematics and making requires an understanding of how individuals engage with math in these informal learning environments, we gathered and synthesized the informal mathematics education literature, with the hope that findings would support the Math in the Making project and inform the work of mathematics researchers and educators more broadly. -
Effective Strategies for Promoting Informal Mathematics Learning
Access Algebra: Effective Strategies for Promoting Informal Mathematics Learning Prepared for by Lynn Dierking Michael Dalton Jennifer Bachman Oregon State University 2008 with the generous support of This material is based upon work supported by the National Science Foundation under grant Number DRL-0714634. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the author(s) and do not necessarily reflect the views of the National Science Foundation or the Oregon Museum of Science and Industry. © OREGON MUSEUM OF SCIENCE AND INDUSTRY, September 2011 Access Algebra: Effective Strategies for Promoting Informal Mathematics Learning Prepared for the Oregon Museum of Science and Industry Oregon State University Lynn Dierking * Michael Dalton * Jennifer Bachman Executive Summary The Oregon Museum of Science and Industry (OMSI) received a five- year grant from the National Science Foundation (NSF) to develop the Access Algebra: Effective Strategies for Promoting Informal Mathematics Learning project. Access Algebra will include a traveling exhibition and a comprehensive professional development program for educational staff at host museums. Access Algebra will target middle- school age youth and engage visitors in design activities that promote creativity and innovation and build mathematics literacy by taking a non-traditional, experiential approach to mathematics learning. Oregon State University (OSU) faculty from the College of Education and the College of Science with expertise in mathematics teaching, administrative experience at K–20 levels and within the Oregon Department of Education, and in free-choice learning settings and research are collaborating on research and development for the exhibit prototypes and professional development components of the project. -
From Ethnomathematics to Ethnocomputing
1 Bill Babbitt, Dan Lyles, and Ron Eglash. “From Ethnomathematics to Ethnocomputing: indigenous algorithms in traditional context and contemporary simulation.” 205-220 in Alternative forms of knowing in mathematics: Celebrations of Diversity of Mathematical Practices, ed Swapna Mukhopadhyay and Wolff- Michael Roth, Rotterdam: Sense Publishers 2012. From Ethnomathematics to Ethnocomputing: indigenous algorithms in traditional context and contemporary simulation 1. Introduction Ethnomathematics faces two challenges: first, it must investigate the mathematical ideas in cultural practices that are often assumed to be unrelated to math. Second, even if we are successful in finding this previously unrecognized mathematics, applying this to children’s education may be difficult. In this essay, we will describe the use of computational media to help address both of these challenges. We refer to this approach as “ethnocomputing.” As noted by Rosa and Orey (2010), modeling is an essential tool for ethnomathematics. But when we create a model for a cultural artifact or practice, it is hard to know if we are capturing the right aspects; whether the model is accurately reflecting the mathematical ideas or practices of the artisan who made it, or imposing mathematical content external to the indigenous cognitive repertoire. If I find a village in which there is a chain hanging from posts, I can model that chain as a catenary curve. But I cannot attribute the knowledge of the catenary equation to the people who live in the village, just on the basis of that chain. Computational models are useful not only because they can simulate patterns, but also because they can provide insight into this crucial question of epistemological status. -
The Philosophy of Mathematics Education
The Philosophy of Mathematics Education The Philosophy of Mathematics Education Paul Ernest © Paul Ernest 1991 All rights reserved. No part of this publication may be reproduced, stored in a retrieval system, or transmitted, in any form or by any means, electronic, mechanical, photocopying, recording or otherwise, without permission in writing from the copyright holder and the Publisher. First published 1991 This edition published in the Taylor & Francis e-Library, 2004. RoutledgeFalmer is an imprint of the Taylor & Francis Group British Library Cataloguing in Publication Data Ernest, Paul The philosophy of mathematics education. 1. Education. Curriculum subjects: Mathematics. Teaching. I. Title 510.7 ISBN 0-203-49701-5 Master e-book ISBN ISBN 0-203-55790-5 (Adobe eReader Format) ISBN 1-85000-666-0 (Print Edition) ISBN 1-85000-667-9 pbk Library of Congress Cataloging-in-Publication Data is available on request Contents List of Tables and Figures viii Acknowledgments ix Introduction xi Rationale xi The Philosophy of Mathematics Education xii This Book xiv Part 1 The Philosophy of Mathematics 1 1 A Critique of Absolutist Philosophies of Mathematics 3 Introduction 3 The Philosophy of Mathematics 3 The Nature of Mathematical Knowledge 4 The Absolutist View of Mathematical Knowledge 7 The Fallacy of Absolutism 13 The Fallibilist Critique of Absolutism 15 The Fallibilist View 18 Conclusion 20 2 The Philosophy of Mathematics Reconceptualized 23 The Scope of the Philosophy of Mathematics 23 A Further Examination of Philosophical Schools 27 Quasi-empiricism -
Decolonizing Education with Anishinaabe Arcs: Generative STEM As a Path to Indigenous Futurity
Education Tech Research Dev (2020) 68:1569–1593 https://doi.org/10.1007/s11423-019-09728-6 CULTURAL AND REGIONAL PERSPECTIVES Decolonizing education with Anishinaabe arcs: generative STEM as a path to indigenous futurity Ron Eglash1 · Michael Lachney2 · William Babbitt3 · Audrey Bennett4 · Martin Reinhardt5 · James Davis3 Published online: 19 December 2019 © Association for Educational Communications and Technology 2019 Abstract This paper introduces a generative framework in which translations of Indigenous knowl- edge systems can expand student agency in science, technology, engineering, and math- ematics (STEM). Students move from computer simulations to physical renderings, to repurposing STEM innovation and discovery in the service of Indigenous community development. We begin with the math and computing ideas in traditional Anishinaabe arcs; describe their translation into software and physical rendering techniques, and fnally their workshop implementation with a mix of Native and non-Native students. Quantitative and qualitative analyses of pre-survey and post-survey data indicate increases in students’ understanding of Indigenous knowledge, their creative ability to utilize it in moving from algorithmic to physical designs, and their visions for new hybrid forms of Indigenous futu- rity. We use these fndings to argue that culture-based education needs to shift from a vin- dicationist mode of admiring ancient achievements, to one that highlights students’ agency in a generative relationship with cultural knowledge. Keywords STEM education · Native American · Indigenous knowledge · Educational technology · Design agency Introduction While culturally responsive education has been a promising trend, it is also a tricky path to navigate. Take, for example, ethnomathematics, which endeavors to “translate” between Indigenous math concepts and their Western equivalents.