Converting Stem Into Steam Programs

This book examines the push and pull of factors contributing to and constraining conversion of STEM (science, technology, engineering and math) education programs into STEAM (science, technology, engineering, math and arts) education programs. The chapters in this book offer thought-provoking examples, theory, and suggestions about the advantages, methods and challenges involved in making STEM to STEAM conversions, at levels ranging from K12 through graduate university programs. A large driving force for STEM-to-STEAM conversions is the emerging awareness that the scientific workforce finds itself less than ideally prepared when engaging with so-called ‘wicked problems’ – the complex suite of emerging, multifaceted issues such as global climate change, social injustice, and pandemic diseases. Dealing with these issues requires cross-disciplinary expertise and the ability to insert technical and scientific understanding effectively into areas of public planning and policy. The different models and possibilities for STEAM, as the next phase of the STEM revolution, laid out in this book will promote research and further our understanding of STEAM as a forward-thinking approach to education. Gillian Roehrig, STEM Education, University of Minnesota, USA The ideal teacher sees opportunities for integrating ideas from multiple disciplines into every lesson. This book offers many worthwhile suggestions on how to do that deliberately and systematically George DeBoer, Project 2061 of the American Association for the Advancement of Science, USA For the last several years, calls for expanding STEM education have grown, but so too have concerns about technocratic approaches to STEM. This volume challenges the community to consider broader views on STEM by focusing on the place of arts education within this movement. The chapters offer much needed, new perspectives on the (re)integration of the arts and sciences Troy Sadler, School of Education, University of North Carolina, USA

This book examines the push and pull of factors contributing to and constraining conversion of STEM (science, technology, engineering and math) education programs into STEAM (science, technology, engineering, math and arts) education programs. The chapters in this book offer thought-provoking examples, theory, and suggestions about the advantages, methods and challenges involved in making STEM to STEAM conversions, at levels ranging from K12 through graduate university programs. A large driving force for STEM-to-STEAM conversions is the emerging awareness that the scientific workforce finds itself less than ideally prepared when engaging with so-called 'wicked problems' -- the complex suite of emerging, multifaceted issues such as global climate change, social injustice, and pandemic diseases. Dealing with these issues requires cross-disciplinary expertise and the ability to insert technical and scientific understanding effectively into areas of public planning and policy.

The addition of the arts to STEM education, now known as STEAM, adds a new dimension to problem-solving within those fields, offering students tools such as imagination and resourcefulness to incorporate into their designs. However, the shift from STEM to STEAM has changed what it means for students to learn within and across these disciplines. Redesigning curricula to include the arts is the next step in preparing students throughout all levels of education. Challenges and Opportunities for Transforming From STEM to STEAM Education is a pivotal reference source that examines the challenges and opportunities presented in redesigning STEM education to include creativity, innovation, and design from the arts including new approaches to STEAM and their practical applications in the classroom. While highlighting topics including curriculum design, teacher preparation, and PreK-20 education, this book is ideally designed for teachers, curriculum developers, instructional designers, deans, museum educators, policymakers, administrators, researchers, academicians, and students.

This edited book explores different international practices in reforming science teacher education programs for STEM education. Incorporating case studies in Asia, the Middle East, Africa, Europe, North America and South America, the contributors emphasise the large variety in STEM teacher preparation. Including science-centric versions of STEM programs as well as more integrated models of STEM, this contextual diversity will help readers learn about the design, opportunities, and challenges of STEM teacher preparation in a variety of circumstances, in order to innovate and improve STEM education more broadly.

This book provides an international platform for educators from different STEM disciplines to present, discuss, connect, and develop collaborations in two inter-related ways: (1) sharing and discussing changes and innovations in individual discipline-based education in STEM/STEAM, and (2) sharing and discussing the development of interdisciplinary STEM/STEAM education. Possible relationships and connections between individual disciplines (like mathematics or physics) and STEM education remain under explored and the integration of traditionally individual discipline-based education in STEM education is far from balanced. Efforts to pursue possible connections among traditionally separated individual disciplines in STEM are not only necessary for the importance of deepening and expanding interdisciplinary research and education in STEM, but also for the ever-increasing need of reflecting on and changing how traditional school subjects (like mathematics or physics) can and should be viewed, taught, and learned. Scholars from eight countries/regions provide diverse perspectives and approaches on changes and innovations in STEM disciplinary and interdisciplinary education. Disciplinary and Interdisciplinary Education in STEM will be a great resource to students and researchers in STEM education as well as STEM curriculum developers and teacher educators internationally.

This book includes papers presented at the International Conference “Educational Robotics in the Maker Era – EDUROBOTICS 2020”, Online, February 2021. The contributions cover a variety of topics useful for teacher education and for designing learning by making activities for children and youth, with an emphasis on modern low-cost technologies (including block-based programming environments, Do-It-Yourself electronics, 3D printed artifacts, the use of intelligent distributed systems, the IoT technology, and gamification) in formal and informal education settings. This collection of contributions (17 chapters and 2 short papers) provides researchers and practitioners the latest advances in educational robotics in a broader sense focusing on science, technology, engineering, arts, and mathematics (STEAM) education. Teachers and educators at any school level can find insights and inspirations into how educational robotics can promote technological interest and 21st-century skills: creativity, critical thinking, team working, and problem-solving with special emphasis on new emerging making technologies.

This book is a contribution to the sociocultural approaches to Science Technology Engineering and Mathematics (STEM) Education. It offers a new interpreting theoretical framework coming from the Cultural Historical Psychology. The authors highlight some serious elements of the sociocultural context that mediates learning on STEM or with STEM adds. The book brings together the work of researchers interested in developmental psychology and childhood, with a special focus on using Activity theory and Cultural-historical research approach to unite these two opposing approaches to the study of children. The authors reconsider our relationship and experiencing with technology. It moves the attention from the pure instrumental aspect of technology to a deep human and societal approach. Moreover, the book focuses on the issue of teachers' continuing education in both formal and informal settings is being seen under a sequential system of expansive cycles and the key role of contradictions in transformative educational settings. Overall, this book encourages the academic society to open dialogue with other societies and enhance interdisciplinary research in times of crisis.

This book offers a new, research-based approach to STEM education in early, elementary, and middle years of schooling, concentrating on building teacher agency and integrated approaches to teaching and learning in High Possibility STEM Classrooms. Author Jane Hunter presents a globally oriented, contemporary framework for powerful Integrated STEM, based on mixed-methods research data from three studies conducted in 14 schools in language-diverse, disadvantaged, and urbanized communities in Australia. Theory, creativity, life preparation, public learning, and contextual accommodations are all utilized to help educators create hands-on, inquiry-led, and project-based approaches to STEM education in the classroom. A set of highly accessible case studies is offered that places pedagogy at the center of practice – an approach valuable for researchers, school leaders, and teachers alike. Ultimately, this text responds to the call for examples of what successful Integrated STEM teaching and learning looks like in schools. The book concludes with an evidence-based blueprint for preparing for less siloed and more transdisciplinary approaches to education in schools. Hunter argues not only for High Possibility STEM Classrooms but for High Possibility STEM Schools, enriching the dialogue around the future directions of STEM, STEAM, middle leadership, technological literacies, and assessment within contemporary classrooms.