Teacher's handbook for teaching science.

In this newly revised and expanded 2nd edition of Picture-Perfect Science Lessons, classroom veterans Karen Ansberry and Emily Morgan, who also coach teachers through nationwide workshops, offer time-crunched elementary educators comprehensive background notes to each chapter, new reading strategies, and show how to combine science and reading in a natural way with classroom-tested lessons in physical science, life science, and Earth and space science.

Fifteen lessons convey how science, technology, engineering, and mathematics intersect in the real world. These lessons embed reading-comprehension strategies that integrate science and English language arts through fiction and nonfiction picture books for grades 3-5. The STEM activities teach students ways to plan and carry out investigations, analyze and interpret data, and construct explanations and design solutions.

If you like the popular?Teaching Science Through Trade Books? columns in NSTA?s journal Science and Children, or if you?ve become enamored of the award-winning Picture-Perfect Science Lessons series, you?ll love this new collection. It?s based on the same time-saving concept: By using children?s books to pique students? interest, you can combine science teaching with reading instruction in an engaging and effective way.

"There's a lot to love about this newly expanded book in the Picture-Perfect Science series. You can combine STEM and reading through lively lessons that are just right for your second-grade students. Also, reading-comprehension strategies are embedded in all 12 of the ready-to-teach lessons. The goal is to help your young scientists learn to read and read to learn while engaging in activities that blend science, technology, engineering, and mathematics"--

"There's a lot to love about this newly expanded book in the Picture-Perfect Science series. You can combine STEM and reading through lively lessons that are just right for your second-grade students. Also, reading-comprehension strategies are embedded in all 12 of the ready-to-teach lessons. The goal is to help your young scientists learn to read and read to learn while engaging in activities that blend science, technology, engineering, and mathematics"--

Co-published with University Council for Educational Administration (UCEA), this textbook prepares aspiring educational leaders for the important and challenging task of supporting instruction in their schools. Instructional Leadership in the Content Areas equips leaders—who might not have content backgrounds that align with those of the teachers they supervise—with research-based practices and knowledge specific to a range of subject areas. Presenting over 20 problems-based cases at the elementary, middle, and high school levels and across seven areas of content, this book deepens knowledge of exemplary instruction, improves feedback dialogues, and helps leaders work effectively alongside teachers and instructional specialists. Rich with activities, resources, and discussion questions, this casebook provides a broad overview of instructional leadership and the tools for school leaders to improve and support classroom practices across all content areas in intentional ways that support career-long professional growth. Case facilitation notes are available here: www.routledge.com/9781138578845

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.

STEM project-based instruction is a pedagogical approach that is gaining popularity across the USA. However, there are very few teacher education programs that focus specifically on preparing graduates to teach in project-based environments. This book is focused on the UTeach program, a STEM teacher education model that is being implemented across the USA in 46 universities. Originally focused only on mathematics and science, many UTeach programs are now offering engineering and computer science licensure programs as well. This book provides a forum to disseminate how different institutions have implemented the UTeach model in their local context. Topics discussed will include sustainability features of the model, and how program assessment, innovative instructional programming, classroom research and effectiveness research have contributed to its success. The objectives of the book are: • To help educators gain insight into a teacher education organizational model focused on STEM and how and why it was developed • To present the theoretical underpinnings of a STEM education model, i.e. deep learning, conceptual understanding • To present innovative instructional programming in teacher education, i.e. projectbased instruction, functions and modeling, research methods • To present research and practice in classroom and field implementation and future research recommendations • To disseminate program assessments and improvement efforts