TSG 15: The role and use of technology in the
teaching and learning of mathematics Jim Kaput Team Members Andrej Blejec, National Institute of Biology,
Slovenia Luc Trouche, IREM, University of Montpellier II, C.C.
040, France We hope that the ICME 10 Topic Study Group The Role and Use of Technology in the Teaching and Learning of Mathematics will serve a dual role: as a forum in which mathematics educators may come together to discuss and to probe major issues associated with the integration of technology into scenarios associated with mathematics teaching and learning and as a place where we can share our ongoing work and perspectives. With this in mind, our aim is to organise the Topic Group so that we can take advantage of the special event of ICME to do two things: (1) To step back and think about the overarching big ideas and long term trends related to technology in mathematics education, with a focus on promising directions and foundational issues. (2) To share participantsí ongoing work and perspectives in ways that inform the longer view of technology in education and vice-versa, to be informed by the longer view. To serve these ambitious goals, we propose to organise the topic group around a set of three inter-related themes as well as to utilise web-presentations in advance of ICME 10. The themes proposed are: (1) Mathematical Thinking, Technology and the Evolution of Mathematics
- Clarifying the Reciprocal Relationships (2) Orchestration of Mathematics Teaching in the Presence of Technology
- Understanding Structure in the Variation (3) What Are Key Factors in the Design of, and What Are Implications of
such New Technologies As Classroom Networks, New Actions, New
Representations, and New Devices? Our objective in choosing this strongly thematic approach is to advance the field by providing a coherent, forward-looking view that helps people think ahead in productive ways. It is also the case that our Topic is extremely broad, including all age level students, all mathematical topics, and all kinds of technology, so establishing coherence is a major challenge. We hope that our work will also help lay the base for published products, including summary papers, books or monographs. We welcome contributions explicitly related to the three themes outlined above. Because of the limited amount of time allocated to the topic study groups and an expectation of several dozen papers, we have decided to host paper presentations in poster sessions (see programme). While no page limit is in force, we strongly prefer shorter papers ahead of longer ones, particularly for inclusion on the web site. All the accepted contributions will be made available on the Topic Group web-site prior to the Congress and all contributors invited to present their work in poster form during the second session, organized by theme. During this session, it is expected that the contributors will be available to discuss their work with the other group members,. The intention is hence to permit a form of oral presentation of all accepted work. Contributors will also be invited to bring copies of accepted papers, including expanded versions, and CDís to be presented-by-distribution during this session. All proposals will be reviewed by members of the organising group. This review procedure will lead to three possible outcomes: (1) acceptance for poster presentation and distribution, (2) recommendation for revision, or (3) rejection. Proposals will be accepted until February 15 and information about the acceptance of papers will be available by March 15. Note that earlier submissions allow for the possibility of revision. Papers should be a MAXIMUM of 8 pages in length. They should be written clearly in English. Text should be 14 point TIMES with 16 point spacing and should fit into an outline of 16 cm x 25 cm. Papers should start with an abstract of up to 10 lines, single spaced and indented 1cm from the left text edge. Spacing between paragraphs should be 12 points. The title should be in 16 point bold capitals, followed by authors' names and institutions in 14 point italics, all centred in the text; name(s) of participating authors should be underlined. Papers in .doc or .pdf format should be sent to both Topic Group chairs. The topic study group has been allocated three one hour sessions and one ninety minute (final) session. We intend to set up a web-site so that web-based presentations of participants' work is available in the weeks prior to ICME 10. Our goal is that this Topic Group will lead to published products following the Congress. Session 0: Web-based preliminary presentations by invitees and presenters in the weeks prior to ICME 10. Session 1: Three summary plenary 20-minute theme-based presentations by invited speakers addressing one theme and referencing the accepted papers. These will be made Web-available in advance of ICME. Participants select a favorite theme and meet informally to discuss it after the session led by that themeís invited speaker. Session 2: A dual poster session. One will be for paper-based posters including papers-for-distribution (where desired) organized according to the three themes and further grouped by student age-level. The other will consist of repeating 15 minute parallel live demonstrations of new technologies addressing the issues of Theme 3. Session 3: An invited 15 minute reaction to the three plenary presentations followed by two parallel theme-based discussion sessions. These discussions, based on the first two themes, should yield plans for the session 4 report, which may include ideas for a publishable product. Session 4: Each theme-group gives a 10 minute plenary presentation focused on promising directions and foundational issues reflecting their discussions during previous sessions. This will be followed by a 20 minute invited reaction identifying cross-cutting issues and summary. Then the entire TSG plans future activity - perhaps a book, monograph and/or synthesis papers, and perhaps a continuing web site. |
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AUTHOR(S) |
TITLE |
PDF FILE SIZE |
Hidden Curriculum as a Didactical Framework for Mathematics Teacher Education in a Technological Paradigm |
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The Impact if Using Technology on Studentsí Achievement, Attitude, and Anxiety in Mathematics |
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Undergraduate Mathematics Enhanced with Graphing Technology |
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Statistics and the New Graphing Calculators |
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How Could Flexibility of Mathematical Conceptions Be Identified? And Which Indicators Can Show Flexibility? |
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Mathematical Thinking and Technology: Some Views on Their Co-Evolution |
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Learning and Teaching Geometry in Virtual Environments |
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Teaching and Learning Mathematics Using Handheld Graphing Technology |
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Prospective Math Teachersí Thinking in Explorations Using a Hand-held Calculator |
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Integrating the Use if ICT in the Mathematics Classroom: Developing Teachersí Practices |
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A Center of Gravity Approach to Conic Sections and Dynamic Geometry Software |
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ìEzer-Reshetî — Distance Mentoring |
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Problem Solving in a CAS Environment |
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A Study of Undergraduate Mathematics Studentsí Achievement and Attitudes in Learning Linear Algebra by Using Graphing Calculators |
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Eleonora Faggiano |
Math Cooperative Learning Networking Technologies |
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Teaching and Learning Statistics with Technology |
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Function Sequence Using Software Support |
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Computational Descriptions and Conflicts Associated with Irrational Numbers |
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Derek Glover |
Panacea or Prop: The Role of the Interactive Whiteboard in Improving Teaching Effectiveness |
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Luiz Carlos Guimarães |
Tools for Distance Teaching in Mathematics |
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Calculator Supported Hand-Outs for Teachers to Solve Real World Problems |
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Lenni Haapasalo |
Using Innovative Technology for Revitalizing Formal and Informal Mathematics: A Special View on the Interplay Between Procedural and Conceptual Knowledge |
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Alena Hospesová |
Investigations in Excel-Aided Mathematical Learning |
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A Snapshot of Practice: Views of Teachers on the Use and Impact of Technology in Secondary Mathematics Classrooms |
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J. Imai |
Development and Case Studies of a WBT System for Remedial Mathematics |
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The Virtual Classroom in Blended Learning Mathematics Undergraduate Courses |
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The Role of the Graphing Calculator Through Characteristics of Verbal Interaction: A Case Study |
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A Case Study of Preservice Teachersí Learning Mathematics Under the Computer Technology Environments |
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Using Asynchronous Internet-Based Technology: Case of Graduate Course in Mathematical Problem Solving |
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Towards New Trends on the Role of Users of Technology: A Look at Some Research Fields |
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Role of Photography in Developing Matheamtical Creativity in Students at Elementary and Practical Levels |
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Method of e-Means/Infrastructure for Information Design Oriented Quality Training of Mathematics Teacher |
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ICT Enhanced Mathematics Education in the Framework of a Knowledge Manifold |
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Masahiro Nagai |
Mathematics Problem Solving Using a Web-Based Knowledge Map and Analysis of the Process |
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On Designing a Global Infrastructure for Content Sharing in Mathematics Education |
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The Technological Presence: Shaping and Shaped by Learners |
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Hiding and Showing Construction Elements in Cabri: A Focusing Process |
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Computer-Aided of Maturity to Learning the Mathematics in School Conditions |
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Developing a Framework for Mathematical Enrichment |
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Estimating Angle: Working with Real Data in the Classroom |
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Research Group of Integration of Mathematics Curriculum and Teaching Materials in High School with Information Technology (Jianyue Zhang) |
Research and Practices of Integration of Mathematics Curriculum and Teaching Materials in High School with Information Technology |
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The Transparency of Instruments as Index of Perceptive and Cultural Relation to Concepts |
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New Methods from New Facilities in DGS: The Case of Algebraic Curves |
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Reconsidering the Drag Test as Criterion of Validation for Solutions of Construction Problems in Dynamic Geometry Environments |
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Lessons Learned: Fostering a Pedagogic Frame of Reference for the Use of Mathematical Modeling Technologies |
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Working with Completely Digital Materials in Secondary Mathematics Education |
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Using Technology in Math Before Calculus |
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Computer-Based Learning Environment for Secondary School Algebra |
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Multimedia Learning Objects in Mathematics Education |
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Mathematics Teacher Education on the WEB (MaDIN) — An Internet-Supported Teaching and Learning System |
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Mathematical Education as Social Structure |
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Trend of Mathematical Education Reform in China |
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Interactive, Generic, Heuristic and Dynamic Step-by-Step Solutions to Mathematical Problems in the World Wide Web |