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This well-researched book provides a valuable instructional framework for high school biology teachers as they tackle five particularly challenging concepts in their classrooms, meiosis, photosynthesis, natural selection, proteins and genes, and environmental systems and human impact. The author counsels educators first to identify students' prior conceptions, especially misconceptions, related to the concept being taught, then to select teaching strategies that best dispel the misunderstandings and promote the greatest student learning. The book is not a prescribred set of lesson plans. Rather it presents a framework for lesson planning, shares appropriate approaches for developing student understanding, and provides opportunities to reflect and apply those approached to the five hard-to-teach topics. More than 300 teacher resources are listed.
" This book does not contain a recipe to follow as you plan and deliver lessons. Nor is it a set of predesigned lessons for use in biology classrooms. Instead, it features both an instructional framework you can use as you plan and sets of research-based strategies and resources you can select from to help your students learn." -- from the Introduction to Hard-to-Teach Biology Concepts, Revised 2nd Edition You know it' s tough to convey some foundational biology concepts-- and it' s even tougher when you' re adjusting to the Next Generation Science Standards. This thoroughly revised book is designed to support you as you plan and implement NGSS-aligned lessons that will engage students with biology concepts that many find especially challenging. The book is organized into two parts that feature an instructional framework and resources that support framework implementation and is designed for both veteran teachers and newcomers to the classroom. Part I, The Toolbox, introduces a research-based Instructional Planning Framework that helps you to understand the learning needs your students bring to class, incorporate appropriate teaching strategies, and interpret the framework and teaching tools through the lens of NGSS. Part II, Toolbox Implementation, models use of the framework with four hard-to-teach topics, all different from the ones in the book' s first edition. Contributing authors show you how the framework helps teach the NGSS' s four disciplinary core ideas: growth and development of organisms, ecosystems, heredity, and biological evolution. As the contributing authors make clear, the teaching models are specific and help to make student thinking visible, but they don' t presume to dictate what' s right for you. Rather, the book will open your mind to fresh, effective ways to help biology students deepen their conceptual understanding based on what works best for them and you in today' s classrooms.
Authors Susan Koba and Carol Mitchell introduce teachers of grades 3- 5 to their conceptual framework for successful instruction of hard-to-teach science concepts. Their methodology comprises four steps: (1) engage students about their preconceptions and address their thinking; (2) target lessons to be learned; (3) determine appropriate strategies; and (4) use Standards-based teaching that builds on student understandings. The authors not only explain how to use their framework but also provide a variety of tools and examples of its application on four hard-to-teach foundational concepts: the flow of energy and matter in ecosystems, force and motion, matter and its transformation, and Earth's shape. Both preservice and inservice elementary school teachers will find this approach appealing, and the authors' engaging writing style and user-friendly tables help educators adapt the method with ease.
An indispensable tool for biology teacher educators, researchers, graduate students, and practising teachers, this book presents up-to-date research, addresses common misconceptions, and discusses the pedagogical content knowledge necessary for effective teaching of key topics in biology. Chapters cover core subjects such as molecular biology, genetics, ecology, and biotechnology, and tackle broader issues that cut across topics, such as learning environments, worldviews, and the nature of scientific inquiry and explanation. Written by leading experts on their respective topics from a range of countries across the world, this international book transcends national curricula and highlights global issues, problems, and trends in biology literacy.
Author Page Keeley continues to provide KOCo12 teachers with her highly usable and popular formula for uncovering and addressing the preconceptions that students bring to the classroomOCothe formative assessment probeOCoin this first book devoted exclusively to life science in her Uncovering Student Ideas in Science series. Keeley addresses the topics of life and its diversity; structure and function; life processes and needs of living things; ecosystems and change; reproduction, life cycles, and heredity; and human biology."
Black & white print. Concepts of Biology is designed for the typical introductory biology course for nonmajors, covering standard scope and sequence requirements. The text includes interesting applications and conveys the major themes of biology, with content that is meaningful and easy to understand. The book is designed to demonstrate biology concepts and to promote scientific literacy.
With an emphasis on science, technology, engineering, and mathematics (STEM) training, Teacher Learning in the Digital Age examines exemplary models of online and blended teacher professional development, including information on the structure and design of each model, intended audience, and existing research and evaluation data. From video-based courses to just-in-time curriculum support platforms and MOOCs for educators, the cutting-edge initiatives described in these chapters illustrate the broad range of innovative programs that have emerged to support preservice and in-service teachers in formal and informal settings. “As teacher development moves online,” the editors argue, “it’s important to ask what works and what doesn’t and for whom,” They address these questions by gathering the feedback of many of the top researchers, developers, and providers working in the field today. Filled with abundant resources, Teacher Learning in the Digital Age reveals critical lessons and insights for designers, researchers, and educators in search of the most efficient and effective ways to leverage technology to support formal, as well as informal, teacher learning.
Biology Inquiries offers educators a handbook for teaching middle and high school students engaging lessons in the life sciences. Inspired by the National Science Education Standards, the book bridges the gap between theory and practice. With exciting twists on standard biology instruction the author emphasizes active inquiry instead of rote memorization. Biology Inquiries contains many innovative ideas developed by biology teacher Martin Shields. This dynamic resource helps teachers introduce standards-based inquiry and constructivist lessons into their classrooms. Some of the book's classroom-tested lessons are inquiry modifications of traditional "cookbook" labs that biology teachers will recognize. Biology Inquiries provides a pool of active learning lessons to choose from with valuable tips on how to implement them.
Bacterial resistance to antibiotics threatens modern healthcare on a global scale. Several actors in society, including the general public, must become more involved if this development is to be countered. The conveyance of relevant information provided through education and media reports is therefore of high concern. Antibiotic resistance evolves through the mechanisms of natural selection; in this way, a sound understanding of these mechanisms underlies explanations of causes and the development of effective risk-reduction measures. In addition to natural selection functioning as an explanatory framework to antibiotic resistance, bacterial resistance as a context seems to possess a number of qualities that make it suitable for teaching natural selection – a subject that has been proven notoriously hard to teach and learn. A recently suggested approach for learning natural selection involves so-called threshold concepts, which encompass abstract and integrative ideas. The threshold concepts associated with natural selection include, among others, the notions of randomness as well as vast spatial and temporal scales. Illustrating complex relationships between concepts on different levels of organization is one, of several, areas where visualizations are efficient. Given the often-imperceptible nature of threshold concepts as well as the fact that natural selection processes occur on different organizational levels, visual accounts of natural selection have many potential benefits for learning. Against this background, the present dissertation explores information conveyed to the public regarding antibiotic resistance and natural selection, as well as investigates how these topics are presented together, by scrutinizing media including news reports, websites, educational textbooks and online videos. The principal method employed in the media studies was content analysis, which was complemented with various other analytical procedures. Moreover, a classroom study was performed, in which novice pupils worked with a series of animations explaining the evolution of antibiotic resistance. Data from individual written assignments, group questions and video-recorded discussions were collected and analyzed to empirically explore the potential of antibiotic resistance as a context for learning about evolution through natural selection. Among the findings are that certain information, that is crucial for the public to know, about antibiotic resistance was conveyed to a low extent through wide-reaching news reporting. Moreover, explanations based on natural selection were rarely included in accounts of antibiotic resistance in any of the examined media. Thus, it is highly likely that a large proportion of the population is never exposed to explanations for resistance development during education or through newspapers. Furthermore, the few examples that were encountered in newspapers or textbooks were hardly ever visualized, but presented only in textual form. With regard to videos purporting to explain natural selection, it was found that a majority lacked accounts of central key concepts. Additionally, explanations of how variation originates on the DNA-level were especially scarce. These and other findings coming from the content analyses are discussed through the lens of scientific literacy and could be used to inform and strengthen teaching and scientific curricula with regards to both antibiotic resistance and evolution. Furthermore, several factors of interest for using antibiotic resistance in the teaching of evolution were identified from the classroom study. These involve, among others, how learners’ perception of threshold concepts such as randomness and levels of organization in space and time are affected by the bacterial context