Reconceptualizing Stem Education
The Central Role of Practices
Herausgeber: Duschl, Richard A; Bismack, Amber S
Reconceptualizing Stem Education
The Central Role of Practices
Herausgeber: Duschl, Richard A; Bismack, Amber S
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In this volume, STEM Education experts explore and map out research and development ideas and issues around five themes-Systems Thinking, Model-Based Reasoning, Quantitative Reasoning, Equity, Epistemic, and Ethical Outcomes, and STEM Communication and Outreach-aligned with the agenda set out by the Next Generation Science Standards and the National Research Council's "A Framework for K-12 Science Education."
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In this volume, STEM Education experts explore and map out research and development ideas and issues around five themes-Systems Thinking, Model-Based Reasoning, Quantitative Reasoning, Equity, Epistemic, and Ethical Outcomes, and STEM Communication and Outreach-aligned with the agenda set out by the Next Generation Science Standards and the National Research Council's "A Framework for K-12 Science Education."
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Hinweis: Dieser Artikel kann nur an eine deutsche Lieferadresse ausgeliefert werden.
Produktdetails
- Produktdetails
- Verlag: Taylor & Francis
- Seitenzahl: 350
- Erscheinungstermin: 8. Januar 2016
- Englisch
- Abmessung: 229mm x 157mm x 25mm
- Gewicht: 658g
- ISBN-13: 9781138901032
- ISBN-10: 1138901032
- Artikelnr.: 42744790
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
- Verlag: Taylor & Francis
- Seitenzahl: 350
- Erscheinungstermin: 8. Januar 2016
- Englisch
- Abmessung: 229mm x 157mm x 25mm
- Gewicht: 658g
- ISBN-13: 9781138901032
- ISBN-10: 1138901032
- Artikelnr.: 42744790
- Herstellerkennzeichnung
- Libri GmbH
- Europaallee 1
- 36244 Bad Hersfeld
- gpsr@libri.de
Richard A. Duschl is the Kenneth B. Waterbury Chaired Professor in Secondary Education, Department of Curriculum and Instruction, College of Education, The Pennsylvania State University, USA. Amber S. Bismack is a Ph.D. student, Department of Educational Studies (Science Education), School of Education, The University of Michigan, USA.
CONTENTS
1. Introduction: Coordinating PreK-16 STEM Education Research and
Practices for Advancing and Refining Reform Agendas
Richard A. Duschl, Amber S. Bismack, James Greeno and Drew H. Gitomer
Theme 1: Systems Thinking
2. Thinking about a System and Systems Thinking in Engineering
Thomas A. Litzinger
3. Diagnostic Instruction: Toward an Integrated System for Classroom
Assessment
Jim Minstrell, Ruth Anderson, and Min Li
4. Response 1: Systems Thinking as a Design Problem
Marcela Borge
5. Response 2: Improving Learning about Systems Requires Designing for
Change in Educational Systems
William R. Penuel
Theme 2: Model-Based Reasoning
6. Modeling Authentic STEM Research: A Systems Thinking Perspective
Annmarie R. Ward
7. Meeting the Standards for STEM Educations: Individual and National
Needs
Spencer A. Benson
8. Response 1: Model-Based Reasoning in Professional Development
Hilda Borko
9. Response 2: "Where is the line?"
Brian P. Coppola
Theme 3: Quantitative Reasoning
10. Quantitative Reasoning in Mathematics Education: Directions in
Research and Practice
Heather Lynn Johnson
11. Teachers Use of Data, Measurement, and Data Modeling in Quantitative
Reasoning
Anthony J. Petrosino
12. Response 1: Quantitative Reasoning in STEM Disciplines
Robert Mayes
13. Response 2: Quantitative Reasoning: Capturing a Tension Between
Structure and Variability
Rose Mary Zbiek
Theme 4: Equity, Epistemic, and Ethical Outcomes
14. Educational and Ethical Dilemmas for STEM Education in Pennsylvania's
Marcellus Shale Gasfield Communities
Catharine Biddle & Kai A. Schafft
15. Defining a Knowledge Base for Reasoning in Science: The role of
procedural and epistemic knowledge
Jonathan Osborne
16. Response 1: Views from Above and Below: Access to Science Education
Nancy Brickhouse
17. Response 2: The Values of Science Literacy
Nancy Tuana
Theme 5: STEM Communication and Policy Outreach
18. Why People Care About Chickens and Other Lessons about Rhetoric,
Public Science, and Informal Learning Environments
Stacey Pigg, William Hart-Davidson, Jeff Grabill, and Kirsten
Ellenbogen
19. New Environments for Professional Development: Situating Science
Learning and Teaching in a Framework and NGSS World
Jean Moon
20. Response 1: School-System Contexts for Professional Development
Edward J. Fuller
21. Response 2: Technology-supported Communication in Science:
Conjectures on Expertise and Evaluation
Drew H. Gitomer
Reflections and Summary
22. Reflections on the Waterbury Summit: STEAM And Systems Thinking
Stephanie E. Vasko
23. Summary: Driving Change Forward
Amber S. Bismack, Yann Shiou Ong, Armend Tahirsylaj, and Richard A. Duschl
About the Authors
Waterbury Summit Participants
1. Introduction: Coordinating PreK-16 STEM Education Research and
Practices for Advancing and Refining Reform Agendas
Richard A. Duschl, Amber S. Bismack, James Greeno and Drew H. Gitomer
Theme 1: Systems Thinking
2. Thinking about a System and Systems Thinking in Engineering
Thomas A. Litzinger
3. Diagnostic Instruction: Toward an Integrated System for Classroom
Assessment
Jim Minstrell, Ruth Anderson, and Min Li
4. Response 1: Systems Thinking as a Design Problem
Marcela Borge
5. Response 2: Improving Learning about Systems Requires Designing for
Change in Educational Systems
William R. Penuel
Theme 2: Model-Based Reasoning
6. Modeling Authentic STEM Research: A Systems Thinking Perspective
Annmarie R. Ward
7. Meeting the Standards for STEM Educations: Individual and National
Needs
Spencer A. Benson
8. Response 1: Model-Based Reasoning in Professional Development
Hilda Borko
9. Response 2: "Where is the line?"
Brian P. Coppola
Theme 3: Quantitative Reasoning
10. Quantitative Reasoning in Mathematics Education: Directions in
Research and Practice
Heather Lynn Johnson
11. Teachers Use of Data, Measurement, and Data Modeling in Quantitative
Reasoning
Anthony J. Petrosino
12. Response 1: Quantitative Reasoning in STEM Disciplines
Robert Mayes
13. Response 2: Quantitative Reasoning: Capturing a Tension Between
Structure and Variability
Rose Mary Zbiek
Theme 4: Equity, Epistemic, and Ethical Outcomes
14. Educational and Ethical Dilemmas for STEM Education in Pennsylvania's
Marcellus Shale Gasfield Communities
Catharine Biddle & Kai A. Schafft
15. Defining a Knowledge Base for Reasoning in Science: The role of
procedural and epistemic knowledge
Jonathan Osborne
16. Response 1: Views from Above and Below: Access to Science Education
Nancy Brickhouse
17. Response 2: The Values of Science Literacy
Nancy Tuana
Theme 5: STEM Communication and Policy Outreach
18. Why People Care About Chickens and Other Lessons about Rhetoric,
Public Science, and Informal Learning Environments
Stacey Pigg, William Hart-Davidson, Jeff Grabill, and Kirsten
Ellenbogen
19. New Environments for Professional Development: Situating Science
Learning and Teaching in a Framework and NGSS World
Jean Moon
20. Response 1: School-System Contexts for Professional Development
Edward J. Fuller
21. Response 2: Technology-supported Communication in Science:
Conjectures on Expertise and Evaluation
Drew H. Gitomer
Reflections and Summary
22. Reflections on the Waterbury Summit: STEAM And Systems Thinking
Stephanie E. Vasko
23. Summary: Driving Change Forward
Amber S. Bismack, Yann Shiou Ong, Armend Tahirsylaj, and Richard A. Duschl
About the Authors
Waterbury Summit Participants
CONTENTS
1. Introduction: Coordinating PreK-16 STEM Education Research and
Practices for Advancing and Refining Reform Agendas
Richard A. Duschl, Amber S. Bismack, James Greeno and Drew H. Gitomer
Theme 1: Systems Thinking
2. Thinking about a System and Systems Thinking in Engineering
Thomas A. Litzinger
3. Diagnostic Instruction: Toward an Integrated System for Classroom
Assessment
Jim Minstrell, Ruth Anderson, and Min Li
4. Response 1: Systems Thinking as a Design Problem
Marcela Borge
5. Response 2: Improving Learning about Systems Requires Designing for
Change in Educational Systems
William R. Penuel
Theme 2: Model-Based Reasoning
6. Modeling Authentic STEM Research: A Systems Thinking Perspective
Annmarie R. Ward
7. Meeting the Standards for STEM Educations: Individual and National
Needs
Spencer A. Benson
8. Response 1: Model-Based Reasoning in Professional Development
Hilda Borko
9. Response 2: "Where is the line?"
Brian P. Coppola
Theme 3: Quantitative Reasoning
10. Quantitative Reasoning in Mathematics Education: Directions in
Research and Practice
Heather Lynn Johnson
11. Teachers Use of Data, Measurement, and Data Modeling in Quantitative
Reasoning
Anthony J. Petrosino
12. Response 1: Quantitative Reasoning in STEM Disciplines
Robert Mayes
13. Response 2: Quantitative Reasoning: Capturing a Tension Between
Structure and Variability
Rose Mary Zbiek
Theme 4: Equity, Epistemic, and Ethical Outcomes
14. Educational and Ethical Dilemmas for STEM Education in Pennsylvania's
Marcellus Shale Gasfield Communities
Catharine Biddle & Kai A. Schafft
15. Defining a Knowledge Base for Reasoning in Science: The role of
procedural and epistemic knowledge
Jonathan Osborne
16. Response 1: Views from Above and Below: Access to Science Education
Nancy Brickhouse
17. Response 2: The Values of Science Literacy
Nancy Tuana
Theme 5: STEM Communication and Policy Outreach
18. Why People Care About Chickens and Other Lessons about Rhetoric,
Public Science, and Informal Learning Environments
Stacey Pigg, William Hart-Davidson, Jeff Grabill, and Kirsten
Ellenbogen
19. New Environments for Professional Development: Situating Science
Learning and Teaching in a Framework and NGSS World
Jean Moon
20. Response 1: School-System Contexts for Professional Development
Edward J. Fuller
21. Response 2: Technology-supported Communication in Science:
Conjectures on Expertise and Evaluation
Drew H. Gitomer
Reflections and Summary
22. Reflections on the Waterbury Summit: STEAM And Systems Thinking
Stephanie E. Vasko
23. Summary: Driving Change Forward
Amber S. Bismack, Yann Shiou Ong, Armend Tahirsylaj, and Richard A. Duschl
About the Authors
Waterbury Summit Participants
1. Introduction: Coordinating PreK-16 STEM Education Research and
Practices for Advancing and Refining Reform Agendas
Richard A. Duschl, Amber S. Bismack, James Greeno and Drew H. Gitomer
Theme 1: Systems Thinking
2. Thinking about a System and Systems Thinking in Engineering
Thomas A. Litzinger
3. Diagnostic Instruction: Toward an Integrated System for Classroom
Assessment
Jim Minstrell, Ruth Anderson, and Min Li
4. Response 1: Systems Thinking as a Design Problem
Marcela Borge
5. Response 2: Improving Learning about Systems Requires Designing for
Change in Educational Systems
William R. Penuel
Theme 2: Model-Based Reasoning
6. Modeling Authentic STEM Research: A Systems Thinking Perspective
Annmarie R. Ward
7. Meeting the Standards for STEM Educations: Individual and National
Needs
Spencer A. Benson
8. Response 1: Model-Based Reasoning in Professional Development
Hilda Borko
9. Response 2: "Where is the line?"
Brian P. Coppola
Theme 3: Quantitative Reasoning
10. Quantitative Reasoning in Mathematics Education: Directions in
Research and Practice
Heather Lynn Johnson
11. Teachers Use of Data, Measurement, and Data Modeling in Quantitative
Reasoning
Anthony J. Petrosino
12. Response 1: Quantitative Reasoning in STEM Disciplines
Robert Mayes
13. Response 2: Quantitative Reasoning: Capturing a Tension Between
Structure and Variability
Rose Mary Zbiek
Theme 4: Equity, Epistemic, and Ethical Outcomes
14. Educational and Ethical Dilemmas for STEM Education in Pennsylvania's
Marcellus Shale Gasfield Communities
Catharine Biddle & Kai A. Schafft
15. Defining a Knowledge Base for Reasoning in Science: The role of
procedural and epistemic knowledge
Jonathan Osborne
16. Response 1: Views from Above and Below: Access to Science Education
Nancy Brickhouse
17. Response 2: The Values of Science Literacy
Nancy Tuana
Theme 5: STEM Communication and Policy Outreach
18. Why People Care About Chickens and Other Lessons about Rhetoric,
Public Science, and Informal Learning Environments
Stacey Pigg, William Hart-Davidson, Jeff Grabill, and Kirsten
Ellenbogen
19. New Environments for Professional Development: Situating Science
Learning and Teaching in a Framework and NGSS World
Jean Moon
20. Response 1: School-System Contexts for Professional Development
Edward J. Fuller
21. Response 2: Technology-supported Communication in Science:
Conjectures on Expertise and Evaluation
Drew H. Gitomer
Reflections and Summary
22. Reflections on the Waterbury Summit: STEAM And Systems Thinking
Stephanie E. Vasko
23. Summary: Driving Change Forward
Amber S. Bismack, Yann Shiou Ong, Armend Tahirsylaj, and Richard A. Duschl
About the Authors
Waterbury Summit Participants