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Becoming a Better Science Teacher: 8 Steps to High Quality Instruction and Student Achievement [Pehme köide]

  • Formaat: Paperback / softback, 216 pages, kõrgus x laius x paksus: 235x156x13 mm, kaal: 322 g
  • Ilmumisaeg: 07-Apr-2016
  • Kirjastus: Skyhorse Publishing
  • ISBN-10: 1634507746
  • ISBN-13: 9781634507745
Teised raamatud teemal:
  • Formaat: Paperback / softback, 216 pages, kõrgus x laius x paksus: 235x156x13 mm, kaal: 322 g
  • Ilmumisaeg: 07-Apr-2016
  • Kirjastus: Skyhorse Publishing
  • ISBN-10: 1634507746
  • ISBN-13: 9781634507745
Teised raamatud teemal:
In today’s standards-based educational climate, teachers are challenged to create meaningful learning experiences while meeting specific goals and accountability targets. In her essential new book, Elizabeth Hammerman brings more than 20 years as a science educator and consultant to help teachers connect all of the critical elements of first-rate curriculum and instruction.

Foreword ix
Dave Youngs
Preface xi
Professional Development for Learning and Change xi
Uses for Becoming a Better Science Teacher xii
Overview of
Chapters
xiii
Using an I.D.E.A. Approach to Metacognition xvi
Acknowledgments xvii
Introduction xix
Changing Perspectives and New Approaches xix
About the Author xxi
PART I CREATING A VISION FOR SUCCESSFUL SCIENCE
1(38)
1 On the Shoulders of Giants
3(24)
Defining the Goal: Scientific Literacy
3(4)
Understanding Science and How Scientists Work
7(1)
Scientific Discoveries
8(4)
Scientists as Problem Solvers
12(6)
The Scientific Enterprise
18(9)
2 Defining High Quality Science Teaching
27(12)
Examining Beliefs and Practices
27(3)
Defining High Quality Curriculum and Instruction: What Research Says
30(2)
Indicators of High Quality Teaching
32(1)
Pedagogical Content Knowledge for Success
33(1)
A Framework for Instructional Materials
33(3)
Action Plans
36(3)
PART II GIANT STEPS TO HIGH QUALITY TEACHING
39(142)
3 The Role of Science Standards
41(18)
Understanding Standards
42(1)
Identifying and Unpacking Power Standards
43(2)
Concepts, Skills, and Dispositions in a Science Framework
45(4)
Concepts and Principles
49(1)
Standards Inform Instruction
49(3)
A Planning Guide for Instruction
52(3)
Interdisciplinary Units
55(1)
Designing an Interdisciplinary Unit
55(1)
Process Skills and Dispositions
55(4)
4 Creating a Context for Meaningful Learning
59(16)
An Introduction to Context
59(1)
Context as a Function of Interest and Awareness of Purpose
60(1)
Context and Intellectual Diversity
61(4)
Context Embracing Brain-Based Learning
65(1)
Emotional Intelligence and Learning
66(2)
Context and Cultural Diversity
68(1)
Science in Multicultural Contexts
69(6)
5 Methods, Strategies, and Best Practices for High Quality Instruction
75(40)
The Role of Methods in Unit Development
76(3)
Teacher's Role in Inquiry
79(1)
Direct Instruction Versus Inquiry-Based Instruction
79(2)
High Quality Lesson Planning
81(3)
Strategies for Student Engagement
84(1)
Strategies to Enhance Inquiry
84(3)
Creative Engagement, Involvement, and Assessment
87(4)
Varying Strategies for Diverse Learners
91(1)
Best Practices in Science Education
91(24)
6 Tools for Thinking and Meaning
115(12)
Questions
116(3)
Graphic Organizers
119(3)
Science, Technology, and Society
122(1)
Notebooks
123(4)
7 Assessments to Guide Instruction
127(12)
Assessments as Tools for Learning
127(2)
Designing Assessments
129(3)
Task and Performance Assessments
132(3)
Summative Performance Assessments
135(4)
8 Safe, Supportive, and Challenging Environments for Learning
139(14)
Considerations for Learning Environments
140(3)
Classroom Safety
143(1)
Resources
143(1)
Internet Resources
144(1)
Classroom Management
145(3)
Management in Informal Settings
148(3)
Creative Classrooms
151(2)
9 Eight Steps to High Quality Instruction and Student Achievement
153(28)
Example 1 Applying the Eight Steps to a Unit on Plants
154(13)
Example 2 Applying the Eight Steps to a Unit on Rocks and Minerals
167(14)
References 181(4)
Index 185