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ویرایش: نویسندگان: Scott R. Bartholomew (editor), Marie Hoepfl (editor), P. John Williams (editor) سری: ISBN (شابک) : 9819957036, 9789819957033 ناشر: Springer سال نشر: 2023 تعداد صفحات: 335 [319] زبان: English فرمت فایل : PDF (درصورت درخواست کاربر به PDF، EPUB یا AZW3 تبدیل می شود) حجم فایل: 6 Mb
در صورت تبدیل فایل کتاب Standards-Based Technology and Engineering Education: 63rd Yearbook of the Council on Technology and Engineering Teacher Education (Contemporary Issues in Technology Education) به فرمت های PDF، EPUB، AZW3، MOBI و یا DJVU می توانید به پشتیبان اطلاع دهید تا فایل مورد نظر را تبدیل نمایند.
توجه داشته باشید کتاب آموزش فناوری و مهندسی مبتنی بر استاندارد: شصت و سومین سالنامه شورای آموزش معلمان فناوری و مهندسی (مسائل معاصر در آموزش فناوری) نسخه زبان اصلی می باشد و کتاب ترجمه شده به فارسی نمی باشد. وبسایت اینترنشنال لایبرری ارائه دهنده کتاب های زبان اصلی می باشد و هیچ گونه کتاب ترجمه شده یا نوشته شده به فارسی را ارائه نمی دهد.
این کتاب نویسندگانی را از سراسر جهان گرد هم می آورد تا در مورد استانداردهای سواد فنی و مهندسی: نقش فناوری و مهندسی در آموزش STEM (STEL) که در ژوئیه 2020 توسط انجمن بین المللی مربیان فناوری و مهندسی (ITEEA) منتشر شد، بحث کنند. فصول مختلف به بررسی و تشریح این موضوع میپردازند که چگونه مربیان باید ساختار استانداردهای مورد استفاده و همسویی آنها با برنامههای آموزشی در سطوح و زمینههای خاص، هم در زمینه ایالات متحده و هم در سطح بینالمللی را درک کنند. همچنین مطالعات موردی را نشان میدهد که استفاده از استانداردها را در زمینههای مختلف آنها از تعدادی از کشورهایی که یا STEL را تطبیق دادهاند یا دارای استانداردهای ملی در آموزش فناوری هستند، تحلیل میکند. STEL نشان دهنده به روز رسانی عمده استانداردهای محتوایی است که حوزه آموزش فناوری (و بعداً آموزش فناوری و مهندسی) در ایالات متحده را از سال 2000 هدایت کرده است. برخلاف استانداردهای قبلی، STEL کاهش قابل توجهی در تعداد استانداردها ارائه می دهد. و معیارهای مرتبط، و معیارها برای شناسایی دانش، مهارتها و شرایط کلیدی مرتبط با هر استاندارد عملیاتی شدهاند. همچنین بر تمرکز بر استانداردهای اصلی تأکید میکند که باید سطوح عمیقتری از درک و مشارکت را در بخشی از دانشآموزان فراهم کند، دانشآموزانی که در برنامههای آموزشی جامع همچنان که از Pre-K تا کلاس 12 پیشرفت میکنند، به بازبینی مجدد این استانداردهای اصلی به روشهای پیچیدهتر ادامه میدهند. .
This book brings together authors from around the world to discuss the Standards for Technological and Engineering Literacy: The Role of Technology and Engineering in STEM Education (STEL) released in July 2020 by the International Technology and Engineering Educators Association (ITEEA). The various chapters examine and elaborate on how educators must understand the structure of the standards used and their alignment with educational programs at specific levels and contexts, both in the context of the USA, and internationally. It also showcases case studies analyzing the use of standards in their various contexts from a number of countries which have either adapted STEL, or which have national Standards in Technology Education. The STEL represents a major update to the content standards that has guided the field of technology education (and, later, technology and engineering education) in the USA since 2000. In contrast to previous standards, STEL presents a substantial reduction in the number of standards and associated benchmarks, and the benchmarks have been operationalized to identify the key knowledge, skills, and dispositions associated with each standard. It also emphasizes a focus on core standards that should allow for deeper levels of understanding and engagement on the part of students, who in comprehensive educational programs will continue to revisit these core standards in increasingly sophisticated ways as they progress from Pre-K through Grade 12.
CTETE Yearbook Planning Committee Officers of the Council (2022–2023) Proposing a Yearbook Previously Published Yearbooks Preface Contents Editors and Contributors Part I Introduction 1 Standards Overview 1.1 The History of Standards in Technology and Engineering Education 1.1.1 Precursors to STEL the Standards for Technological and Engineering Literacy 1.1.2 The Standards for Technological and Engineering Literacy (STEL) Development Process 1.2 Overview of the Yearbook 1.3 The Role of Standards for Technological and Engineering Literacy 1.3.1 Teacher Education 1.3.2 Professional Development 1.3.3 Marketing References Part II Implementation of Standards-Based Programs 2 Implementing Standards: Lessons Learned from Science, Mathematics, and Information Technology 2.1 Examining the Standards Development, Adoption, and Iteration Process 2.1.1 Development 2.1.2 Adoption 2.1.3 Iteration 2.2 Implementing Standards: Content and Curriculum 2.3 Exploring Lessons Learned Through Implementation of the Standards 2.3.1 National Level—Policy, Curriculum, and Assessment 2.3.2 State Level—Standards Adoption, Professional Development, and Assessment 2.3.3 District and School Levels—Translating Standards into Curriculum Models 2.3.4 Classroom Level—Adopting Standards-Based Teaching Strategies 2.4 Moving Forward: Overarching Recommendations for STEL References 3 The Standards for Technological and Engineering Literacy and Children’s Psychological Development: A Content Analysis of Engineering Concepts for PreK-Year6 3.1 Introduction 3.2 Theoretical Framework 3.3 Concepts 3.4 Knowledge Forms 3.5 A Cultural-Historical View of Development 3.6 How is Engineering Knowledge Constructed for the PreK-6 Student? 3.7 Engineering Concepts for PreK-2 3.8 Engineering Concepts for Yr3–Yr6 3.9 Conclusion References 4 Standards-Based Technology and Engineering Curricula in Secondary Education: The Impact and Implications of the Standards for Technological and Engineering Literacy 4.1 Introduction 4.2 Current Standards-Based Resources 4.2.1 Engineering byDesign 4.2.2 Engineering the Future 4.2.3 Project Lead the Way 4.2.4 Framework for P-12 Engineering Learning 4.3 Pedagogical Implications of STEL for Secondary Education 4.3.1 Systems Thinking 4.3.2 Creativity 4.3.3 Making and Doing 4.3.4 Critical Thinking 4.3.5 Optimism 4.3.6 Collaboration 4.3.7 Communication 4.3.8 Attention to Ethics 4.4 Implications for Teacher Preparation 4.5 Recommendations for Further Action 4.6 Conclusion References 5 Best Practices for Technology and Engineering Education Teacher Preparation Programs 5.1 Introduction 5.2 Best Practices 5.3 An Undergraduate Focus 5.4 Standards-Based Courses 5.5 An Active Student Club 5.6 Integration of Both Content and Pedagogy into All Classes 5.7 Conclusion References 6 Considerations in the Development of STEL-Aligned Professional Development Guidelines 6.1 Introduction 6.2 Professional Development Connected to the STEL: A Key Component of TED Teacher Preparation and Growth 6.3 Focus and Format Considerations for TED Professional Development 6.3.1 Alignment of PD with Science Standards 6.3.2 Elements of TED PD in the U.S. 6.3.3 Elements of TED PD Outside of the U.S. 6.3.4 Elements of Integrative TED-Based PD 6.3.5 PD Format Considerations 6.4 Content Considerations for TED PD 6.4.1 Developing Teacher’s Knowledge Through PD Experiences 6.4.2 Preparation to Deliver Technology and Engineering Content and Practices 6.5 Conclusions 6.6 Recommendations 6.7 Recommendations for Further Research References Part III Positioning Standards-Based STEM Instruction Within the Broader Educational Context 7 Teaching a Standards-Based Curriculum: The School Administrator Perspective 7.1 Introduction 7.2 A Brief History of Standards-Based Instruction and the Accountability Movement 7.3 Guiding Principles of Standards-Based School Instruction 7.3.1 School-Based Standards for Achieving Growth and Proficiency Targets 7.3.2 On the Ground with Standards-Based School Administrative Leadership 7.3.3 The Contemporary Necessity of STEM Educational Standards—Especially Within High-Poverty Schools 7.3.4 School-Based Response to Intervention and Multi-tiered System of Supports 7.4 Wrapping Up the C.A.S-E. for Standards-Based School Leadership References 8 Communicating Standards for Technological and Engineering Literacy: Defining the Role of Technology and Engineering in STEM Education (STEL) to External Audiences 8.1 Introduction 8.2 Promoting STEL to External Audiences 8.2.1 Website Content 8.2.2 Webinars and Other Live Events 8.2.3 Conferences 8.2.4 News Releases 8.2.5 Social Media 8.2.6 Translations into Other Languages 8.3 Lessons Learned 8.4 Conclusion References 9 Areas of Research for STEL Practitioners 9.1 Introduction 9.2 “Classical” Types of Educational Research into Standards for Technological Literacy 9.2.1 Theoretical Studies 9.2.2 Empirical Studies 9.2.3 Value and Limitations of Classical Studies 9.3 Contemporary Types of Educational Research into Standards for Technological Literacy 9.3.1 Design-Based Research 9.3.2 Action Research and Ethnography 9.3.3 Teachers as Researchers 9.4 Concluding Remarks References Part IV International Implementation of Standards-Based Curriculum 10 International Applicability of Standards for Technological and Engineering Literacy 10.1 The Internationality of ITEEA 10.2 ITEEA and Standards 10.3 What Do the Standards State About Their International Applicability? 10.4 How Have the ITEEA Standards Been Used Internationally in the Past, and How Might They Be Used in the Future? 10.5 What Are Some Issues and Conceptions of the Use of the Standards? 10.6 Conclusion References 11 Standards-Based Programme Planning and Implementation of Technology and Engineering in Nigeria 11.1 Adopting STEL in Nigeria and Africa at Large 11.2 Basic Science and Technology Education Curriculum Implementation in Nigeria 11.3 Senior Science and Technical Education Curriculum Implementation in Nigeria 11.4 Strengths and Weakness of STEM in Nigeria 11.4.1 Strength of STEM Education in Nigeria 11.4.2 Weaknesses of STEM Education in Nigeria 11.5 STEM Education in Nigeria and Standards for Technological and Engineering Literacy (STEL) References 12 The Impact of International Technology Education Standards on the Development of a National Curriculum: A Case Study in Korea 12.1 Introduction: The Need for New Perspectives in Technology Education 12.2 Technology Education in Korean Elementary Schools 12.3 Technology Education in Korean Secondary Schools 12.4 Translating STEL into Korean 12.5 The Impact of STEL on the 2022 Korean National Curriculum 12.6 Conclusion References 13 The Application of International Models for Standards-Based STEM Education in Taiwan: A Case Study 13.1 Standards-Based Curriculum Development in Taiwan 13.2 The Reformation of Technology Curriculum in Taiwan 13.2.1 Implementation of STEL Within Taiwan’s Current Technology Education 13.2.2 Examples in Implementing Technology Curriculum Guidelines 13.3 Future Opportunities and Challenges References 14 Features of Quality and Assessment Standards in Newly Reformed Irish Junior Cycle Technology Education 14.1 Introduction: Technology Education in Ireland 14.2 A New Framework for Technology Education 14.3 Contemporary Technology Education in Ireland 14.4 Centrality of the Teacher and Learner 14.5 Implementation of Standards Through Assessment 14.6 Concluding Comments References 15 Technology and Engineering Education Standards in an Innovative European Collaborative STEM Project: Lessons from Ireland and Sweden 15.1 Introduction 15.2 Development of the ATS STEM Conceptual Framework 15.3 Translating Educational Standards 15.4 Illustrative Examples of STEM Activities Within the ATS STEM Project 15.5 Examples from Irish Case Study Research 15.6 Examples from Sweden Case Study Research 15.7 Conclusion References 16 The Impacts and Relationship of STEL and Technology Education in Estonia 16.1 Introduction 16.2 Technology Education Curriculum in Estonia 16.3 STEM Education and Research in Estonia 16.4 Using STEM Elements to Train Teachers at Estonian Universities 16.5 Conclusion References Part V Critical Perspectives on Standards-Based Educational Programs 17 Learning Standards: A Journey from Evangelist to Skeptic 17.1 A Journey from Standards Evangelist to Standards Skeptic 17.2 The Purpose of Standards 17.2.1 Industry Standards 17.2.2 Education Standards 17.3 Why is There Skepticism About Education Standards? 17.3.1 Pros and Cons of Using Standards 17.3.2 Common Core State Standards in the U.S. 17.3.3 Politics, Money, and Common Core Standards 17.4 From Standards to Thematic Ideas in T&E Instruction 17.4.1 Using Standards Constructively as Focal Points for Instruction 17.4.2 A Curricular Example 17.4.3 Design-Based Learning Activities as Instructional Drivers 17.5 Flow Theory 17.5.1 Teaching with Flow as the Goal 17.5.2 The Value of Enabling and Encouraging Student Bird Walks 17.5.3 What’s It All About, Alfie? 17.6 Summary and Conclusions Appendix: Commentary on Standards for Technological and Engineering Literacy References 18 Lenses for Critiquing and Improving the Standards: Design, Indigeneity, Access and Equity, and Literacy 18.1 A Design Perspective 18.2 An Indigenous Perspective 18.2.1 Theoretical Underpinning 18.2.2 ITEEA as a STEM Organization 18.2.3 Globalization of STEM Curricula 18.2.4 STEL 18.2.5 Literacy Redefined to Fit the Purpose 18.2.6 Trans-/Inter-/Multi-disciplinarity of STEM 18.2.7 Collaborative Learning Approaches 18.3 An Equity and Access Perspective 18.3.1 Introduction 18.3.2 Motivation 18.3.3 Critiquing and Improving the STEL Standards on Equity, Access, and Its Intersections 18.3.4 Concluding Thoughts 18.4 A Literacy Perspective 18.4.1 Critique of the STEL from a Literacy Perspective 18.4.2 Connotative Meanings in/of DE&T 18.4.3 Meaning-Making Through DE&T References