There is a critical need to prepare diverse teachers with expertise in science, technology, engineering, and mathematics (STEM) with the skills necessary to work effectively with underrepresented K-12 students. Three major goals of funded STEM programs are to attract and prepare students at all educational levels to pursue coursework in the STEM content areas, to prepare graduates to pursue careers in STEM fields, and to improve teacher education programs in the STEM content areas. Drawing upon these goals as the framework for Recruiting, Preparing, and Retaining STEM Teachers for a Global Generation, the 15 chapters contained herein highlight both the challenges and successes of recruiting, preparing, and sustaining novice teachers in the STEM content areas in high-need schools. Recruiting, retaining and sustaining highly-qualified teachers with expertise in STEM content areas to work in hard-to-staff schools and geographic areas are necessary to equalize educational opportunities for rural and urban Title 1 students. High teacher turnover rates, in combination with teachers working out-of-field, leave many students without highly-qualified teachers in STEM fields. Most of the chapters in this volume were prepared by scholars who received NSF funding through Noyce and are engaged in addressing research questions related to these endeavours. Contributors are: Lillie R. Albert, Cynthia Anhalt, Saman A. Aryana, Joy Barnes-Johnson, Lora Bartlett, Brezhnev Batres, Diane Bonilla, Patti Brosnan, Andrea C. Burrows, Alan Buss, Laurie O. Campbell, Phil Cantor, Michelle T. Chamberlin, Scott A. Chamberlin, Marta Civil, Lin Ding, Teresa Dunleavy, Belinda P. Edwards, Jennifer A. Eli, Joshua Ellis, Adrian Epps, Anne Even, Angela Frausto, Samantha Heller, Karen E. Irving, Heather Johnson, Nicole M. Joseph, Richard Kitchen, Karen Kuhel, Marina Lazic, Jacqueline Leonard, Rebecca H. McGraw, Daniel Morales-Doyle, Sultana N. Nahar, Justina Ogodo, Anil K. Pradhan, Carolina Salinas, David Segura, Lynette Gayden Thomas, Alisun Thompson, Maria Varelas, Dorothy Y. White, Desha Williams, and Ryan Ziols.

This edited volume discusses the need to increase quantity and enhance quality of science education focused on preparing rural students to thrive in an interconnected, interdependent, and complex world. It acknowledges that globally integrated education incorporates local knowledge and culture with global trends. Additionally it highlights globally competent science teaching is not included in most preparation programs, and teachers enter schools unprepared to address students’ needs. Rural schools lack opportunities to keep up with reform efforts and may have limited experiences with diversity, particularly at the global level. These chapters describe globalization in authors’ respective academic institutions by sharing global competence action research projects for preservice teachers. The studies presented were conducted in elementary and secondary science methods, and science content courses. The book’s research is unique as the contributors have carried out action research in science teacher preparation programs and participated in peer discussions that helped them fill gaps in global science teaching while advancing the field of teacher preparation programs.

This book broadly educates preservice teachers and scholars about current research on computational thinking (CT). More specifically, attention is given to computational algorithmic thinking (CAT), particularly among underrepresented K–12 student groups in STEM education. Computational algorithmic thinking (CAT)—a precursor to CT—is explored in this text as the ability to design, implement, and evaluate the application of algorithms to solve a variety of problems. Drawing on observations from research studies that focused on innovative STEM programs, including underrepresented students in rural, suburban, and urban contexts, the authors reflect on project-based learning experiences, pedagogy, and evaluation that are conducive to developing advanced computational thinking, specifically among diverse student populations. This practical text includes vignettes and visual examples to illustrate how coding, computer modeling, robotics, and drones may be used to promote CT and CAT among students in diverse classrooms.

Science is unique among the disciplines since it is inherently hands-on. However, the hands-on nature of science instruction also makes it uniquely challenging when teaching in virtual environments. How do we, as science teachers, deliver high-quality experiences in an online environment that leads to age/grade-level appropriate science content knowledge and literacy, but also collaborative experiences in the inquiry process and the nature of science? The expansion of online environments for education poses logistical and pedagogical challenges for early childhood and elementary science teachers and early learners. Despite digital media becoming more available and ubiquitous and increases in online spaces for teaching and learning (Killham et al., 2014; Wong et al., 2018), PreK-12 teachers consistently report feeling underprepared or overwhelmed by online learning environments (Molnar et al., 2021; Seaman et al., 2018). This is coupled with persistent challenges related to elementary teachers’ lack of confidence and low science teaching self-efficacy (Brigido, Borrachero, Bermejo, & Mellado, 2013; Gunning & Mensah, 2011). Teaching and Learning Online: Science for Elementary Grade Levels comprises three distinct sections: Frameworks, Teacher’s Journeys, and Lesson Plans. Each section explores the current trends and the unique challenges facing elementary teachers and students when teaching and learning science in online environments. All three sections include alignment with Next Generation Science Standards, tips and advice from the authors, online resources, and discussion questions to foster individual reflection as well as small group/classwide discussion. Teacher’s Journeys and Lesson Plan sections use the 5E model (Bybee et al., 2006; Duran & Duran, 2004). Ideal for undergraduate teacher candidates, graduate students, teacher educators, classroom teachers, parents, and administrators, this book addresses why and how teachers use online environments to teach science content and work with elementary students through a research-based foundation.

A call to action championing equity and social justice in K–12 science curriculum

Student-scientist-teacher interactions provide students with several advantages. They provide opportunities to interact with experts and professionals in the field, give students a chance at meeting a role model that may impact students' career choices, and increase awareness of available career options combined with an understanding of how their skills and interests affect their career decisions. Additionally, it enhances attitudes and interest toward STEM professions for students and grants opportunities to connect with scientists as human beings and see them as "real people," replacing stereotypical perceptions of scientists. Moreover, there are many advantages for the teacher or informal educator when these partnerships are established. For these reasons and more, numerous studies are often conducted involving the partnerships of students, scientists, and teachers. Enhancing Learning Opportunities Through Student, Scientist, and Teacher Partnerships organizes a collection of research on student-scientist-teacher partnerships and presents the models, benefits, implementation, and learning outcomes of these interactions. This book presents a variety of different scientist-student-teacher partnerships with research data to support different learning outcomes in settings like schools, after-school programs, museums, science centers, zoos, aquariums, children's museums, space centers, nature centers, and more. This book is ideal for in-service and preservice teachers, administrators, teacher educators, practitioners, stakeholders, researchers, academicians, and students interested in research on beneficial student-scientist-teacher partnerships/models in formal and informal settings.

Teacher retention is an area of great concern across the globe as it appears many teachers leave the field after only a few years, especially those serving low-income students. There is a growing gap from preparation to practice. Not only must educator preparation programs (EPPs) be diligent in utilizing systematically effective methods of preparing novice teachers, but schools must also be cognizant of the need for continued mentorship and quality professional development that matches the unique needs of their novice teachers. When novice teachers enter the profession, they must be offered explicit and scaffolded opportunities for continued learning in order to bridge the theoretical aspects of teaching learned in a preparation program to the practical application of a classroom/school setting, as these opportunities differ from the needs of veteran teachers. Collaborative Approaches to Recruiting, Preparing, and Retaining Teachers for the Field provides a collection of theoretical, application, and research-based information regarding a variety of viewpoints and strategies that educator preparation programs must be cognizant of in order to meet the varied and individualized needs of novice teachers so that the academic, behavioral, and/or social-emotional needs of their students are effectively supported. Overall, this book recognizes the constant need for improvement within educator preparation programs and school systems, showcases that teacher retention is a concern across the United States and globally, and shows how educator preparation programs and schools/districts must reach across the boundaries of content-specificity and collaborate to prepare teacher candidates most effectively. Covering topics such as teacher retention, collaborative partnerships, and growth mindset, this book is essential for educational preparation faculty, educational leadership faculty, P-12 general and special education teachers, administrators, government officials, pre-service teachers, students, researchers, and academicians.