Becoming Scientists

Most important to being a good science teacher is holding the expectation that all students can be scientists and think critically. Providing a thinking curriculum is especially important for those children in diverse classrooms who have been underserved by our educational system. -; Becoming Scientists Good science starts with a question, perhaps from the teacher at the start of a science unit or from the children as they wonder what makes a toy car move, how food decomposes, or why leaves change color. Using inquiry science, children discover answers to their questions in the same way that scientists do-;they design experiments, make predictions, observe and describe, offer and test explanations, and share their conjectures with others. In essence, they construct their own understanding of how the world works through experimentation, reflection, and discussion. Look into real classrooms where teachers practice inquiry science and engage students in the science and engineering practices outlined in the Next Generation Science Standards. Rusty Bresser and Sharon Fargason show teachers how to do the following: Build on students' varied experiences, background knowledge, and readiness Respond to the needs of students with varying levels of English language proficiency Manage a diverse classroom during inquiry science exploration Facilitate science discussions Deepen their own science content knowledgeAs the authors state, Inquiry science has little to do with textbooks and lectures and everything to do with our inherent need as a species to learn about and reflect on the world around us. Join your students on a journey of discovery as you explore your world via inquiry.

"• Can I contribute to science?• Do I like to work on the problems of science? • How do scientists know what they know?• Would I like to be|become a scientist? These are questions that interest new science students. The authors provide teachers with an approach to foster and answer these questions by concentrating on learners and learning. They argue that students are typically taught from a disciplinary perspective of science. Using this lens students are viewed as people who need to learn a particular canon of information, methods, and ways of knowing about the world—a perspective that may be useful for practicing scientists, but not ideal for young learners. In this disciplinary approach to science education there is little room for development as a scientist. In contrast, the approach championed by Kirch and Amoroso places learner questions about the world at the forefront of teaching and learning and treats science as a system of human activity. The historical explorations, theoretical insights and practical advice presented here are appropriate for all ages and educational settings. In Being and Becoming Scientists Today, the authors provide: new tools for thinking about science, ideas for how to reveal the multiple stories of knowledge production to learners, and approaches to teaching science as a collective process rather than a series of contributions made by (famous) individuals. In these ways, the authors promote the idea that all science learners contribute to the science in our lives."

Most important to being a good science teacher is holding the expectation that all students can be scientists and think critically. Providing a thinking curriculum is especially important for those children in diverse classrooms who have been underserved by our educational system. OCo Becoming Scientists. Good science starts with a question, perhaps from the teacher at the start of a science unit or from the children as they wonder what makes a toy car move, how food decomposes, or why leaves change color. Using inquiry science, children discover answers to their questions in the same way that scientists doOCothey design experiments, make predictions, observe and describe, offer and test explanations, and share their conjectures with others. In essence, they construct their own understanding of how the world works through experimentation, reflection, and discussion. Look into real classrooms where teachers practice inquiry science and engage students in the science and engineering practices outlined in the Next Generation Science Standards. Rusty Bresser and Sharon Fargason show teachers how to do the following: Build on students' varied experiences, background knowledge, and readiness; Respond to the needs of students with varying levels of English language proficiency; Manage a diverse classroom during inquiry science exploration; Facilitate science discussions; Deepen their own science content knowledge. As the authors state, Inquiry science has little to do with textbooks and lectures and everything to do with our inherent need as a species to learn about and reflect on the world around us. Join your students on a journey of discovery as you explore your world via inquiry."

Mary Grace Soccio. My writing could not please this kindhearted woman, no matter how hard I tried. Although Gifed and Talented seventh-grade math posed no problem for me, the same was not true for Mrs. Soccio’s English class. I was frustrated that my frst assignment only netted me a C. I worked harder, making re- sion afer revision, a concept I had never really put much faith in before. At last, I produced an essay that seemed the apex of what I was capable of wr- ing. Although the topic of that essay is now lost to my memory, the grade I received was not: a B?. “Te best I could do was a B??” Te realization sank in that maybe I was not such a good writer. In those days, my youthful hubris did not understand abouc t apacity bui- ing. In other words, being challenged would result in my intellectual growth— an academic restatement of Nietzsche’s “What does not destroy me, makes me stronger.” Consequently, I asked to be withdrawn from Gifed and Talented English in the eighth grade.

This book has been replaced by Becoming a Behavioral Science Researcher, Second Edition, ISBN 978-1-4625-3879-9.

In just a few years, today’s children and teens will forge careers that look nothing like those that were available to their parents or grandparents. While the U.S. economy becomes ever more information-driven, our system of education seems stuck on the idea that “content is king,” neglecting other skills that 21st century citizens sorely need. Becoming Brilliant offers solutions that parents can implement right now. Backed by the latest scientific evidence and illustrated with examples of what’s being done right in schools today, this book introduces the 6Cs—collaboration, communication, content, critical thinking, creative innovation, and confidence—along with ways parents can nurture their children’s development in each area.

Now in its Third Edition, this text provides the background knowledge primary teachers need to plan effective programmes of work and answer children′s questions with confidence. The new edition links explanations of scientific concepts with children′s everyday experiences to help teachers and trainees foresee how they will present the subject knowledge to their pupils. Shaped by the National Curriculum, this text explains key scientific theories and concepts which pupils at primary level, including very able children, need in order to understand the observations and investigations they undertake. A CD ROM of 200 science investigations for young students is included with the new edition, allowing teachers to explore the practical application of topics covered in the book. This is an essential book for teachers, student teachers and anyone interested in the roots and growth of science education.

Understanding Young People's Science Aspirations offers new evidence and understanding about how young people develop their aspirations for education, learning and, ultimately, careers in science. Integrating new findings from a major research study with a wide ranging review of existing international literature, it brings a distinctive sociological analytic lens to the field of science education. The book offers an explanation of how some young people do become dedicated to follow science, and what might be done to increase and broaden this population, exploring the need for increased scientific literacy among citizens to enable them to exercise agency and lead a life underpinned by informed decisions about their own health and their environment. Key issues considered include: why we should study young people’s science aspirations the role of families, social class and science capital in career choice the links between ethnicity, gender and science aspirations the implications for research, policy and practice. Set in the context of widespread international policy concern about the urgent need to improve, increase and diversify participation in post-16 science, this key text considers how we must encourage a supply of appropriately qualified future scientists and workers in STEM industries and ensure a high level of scientific literacy in society. It is a crucial read for all training and practicing science teachers, education researchers and academics, as well as anyone invested in the desire to help fulfil young people’s science aspirations.