Get your sports-loving kid excited about Science, Technology, Engineering, and Math By integrating the thrill of learning into the context of basketball, Learning STEM from Basketball presents an educational slam dunk. Unleash the inner scientist, engineer, and mathematician in your child as they learn that sports and STEM aren't so separate after all. You'll both love finding out the answers to questions such as: Why does a basketball bounce? What's a shot clock? Why does a basketball rim have a net? What's the math behind a free throw? And so much more! This easy-to-follow introduction to STEM topics sets kids up to make connections across subjects, discover new facts about basketball, and grow curious about academic fields!

Describes the science behind the sport of basketball, including offense, defense, arenas, and trick plays.

Taking over a rowdy gym class right before winter vacation is not something James Naismith wants to do at all. The last two teachers of this class quit in frustration. The students—a bunch of energetic young men—are bored with all the regular games and activities. Naismith needs something new, exciting, and fast to keep the class happy—or someone's going to get hurt. Saving this class is going to take a genius. Discover the true story of how Naismith invented basketball in 1891 at a school in Springfield, Massachusetts.

"Find out how to go from the local gym to the NBA. Readers get an insider's look at how athletes prepare for competition as well as the special events players participate in when they aren't on the court"--

Get your sports-loving kid excited about Science, Technology, Engineering, and Math By integrating the thrill of learning into the context of basketball, Learning STEM from Basketball presents an educational slam dunk. Unleash the inner scientist, engineer, and mathematician in your child as they learn that sports and STEM aren't so separate after all. You'll both love finding out the answers to questions such as: Why does a basketball bounce? What's a shot clock? Why does a basketball rim have a net? What's the math behind a free throw? And so much more! This easy-to-follow introduction to STEM topics sets kids up to make connections across subjects, discover new facts about basketball, and grow curious about academic fields!

From dribbling and three-pointers to free throws and slam dunks, basketball is not only a game of athletic strength and skill, but also one of science and energy, angles and math, and high-tech engineering. In STEM in Basketball readers explore the science behind their favorite player's best moves on the court and learn about the technology that is changing the game. Why do backboards shatter? What is the best angle for a jump shot? What makes that basketball so "smart"? The answer is STEM, of course. Every book in the Connecting STEM and Sports series provides an in-depth look at how the principles of science, technology, engineering, and math are essential to the sports we love. In classrooms today, STEM curriculum is integrated for real-world learning, and this series shows how all four disciplines work together in the everyday games we watch and play. Each title in this series includes color photos throughout, and back matter including: an index and further reading lists for books and internet resources. Key Icons appear throughout the books in this series in an effort to encourage library readers to build knowledge, gain awareness, explore possibilities and expand their viewpoints through our content rich non-fiction books. Key Icons in this series are as follows: Words to Understand are shown at the front of each chapter with definitions. These words are set in boldfaced type in that chapter, so that readers are able to reference back to the definitions--building their vocabulary and enhancing their reading comprehension. Sidebars are highlighted graphics with content rich material within that allows readers to build knowledge and broaden their perspectives by weaving together additional information to provide realistic and holistic perspectives. Educational Videos are offered in chapters through the use of a QR code, that, when scanned, takes the student to an online video showing a moment in history, a speech, or an instructional video. This gives the readers additional content to supplement the text. Text-Dependent Questions are placed at the end of each chapter. They challenge the reader's comprehension of the chapter they have just read, while sending the reader back to the text for more careful attention to the evidence presented there. Research Projects are provided at the end of each chapter as well and provide readers with suggestions for projects that encourage deeper research and analysis. And a Series Glossary of Key Terms is included in the back matter containing terminology used throughout the series. Words found here broaden the reader's knowledge and understanding of terms used in this field.

In recent years, diversity in learning environments has become a pivotal topic of conversation for educators. By enhancing underrepresented students’ computational thinking skills, it creates more room for future career opportunities. Moving Students of Color from Consumers to Producers of Technology is a comprehensive reference source that provides innovative perspectives on the need for diversity in computer science and engineering disciplines and examines best practices to build upon students’ knowledge bases. Featuring coverage on an expansive number of topics and perspectives, such as, computational algorithmic thinking, STEM diversity, and distributed mentorship, this publication is ideally designed for academicians, researchers, and students interested in efforts to broaden participation in computer science careers fields for underrepresented students.

Sports are intertwined with American society. Since the earliest forms of native games to today’s extreme competitions, sports have left an indelible mark on the fabric of American culture. Today, sports are a multibillion-dollar industry. Social media provides a never ceasing outlet for community interaction surrounding sporting events and discussions. At their core, sports are an opportunity for self-exploration through the lens of competition, social structures, and community building. Interpreting Sports at Museums and Historic Sites encourages museums, historical sites and cultural institutions to consider the history of sport as integral to American culture and society. Sports provide a vehicle to understanding the growth and development of America from colonization to globalization. Central to this work is a call to bring a balanced view of humanity to the sports commemoration conversation. Museums can and should be places of advocacy and inclusion for all athletes and sports figures: young & old, ametuer & professional, past & present. Practitioners are encouraged to consider museums as safe spaces to approach empathetic, complex, enthralling conversations that allow for both celebratory and challenging topics. This comprehensive study provides analytical direction and practical application for interpreting sports history at a variety of sites; guiding sports and non-sports museum professionals alike. A robust series of essays illuminate the innovative, forward thinking nature of sport exhibition and programming that is an active part of the American museum experience. Thirty-two national and international authors take an honest look at the ways sports impacts culture and culture impacts sports. Six thematic essays uncover the particularities of navigating the sports historical landscape alongside an actively engaged, present-day audience. Then, a wide selection of case studies explore successful and unsuccessful attempts at attracting the public and engaging in educational discussion around both uplifting and difficult sports topics. Opportunities for including sports in exhibition planning and programmatic development are a key benefit of this practical guide. You’ll discover an astounding variety of viewpoints and methods for offering popular sports programming into your institutional programming and outreach efforts. From a fun mix of museum professionals, historians, and sports personnel comes this complete guide to developing and implementing a more cohesive story of sport history within your institution.

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 to secondary students 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 Secondary Grade Levels comprises three distinct sections: Frameworks, Teacher’s Journeys, and Lesson Plans. Each section explores the current trends and the unique challenges facing secondary 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.

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.