Dinah Zike's Big Book of Science


Book Description

Features instructions for 35 graphic organizers, with approximately 270 full-color photographed examples. Fifty pages of Earth, Life, Astronomy, and Physical topic lists give thousands of ideas for using Foldables when teaching science. Along side each topic list there are approximately 4 blackline art examples of science Foldables. The back section of the book consists of 55 pages of reproducible science graphics that can be used with various Foldables.




Big Book of Science


Book Description

Features instructions for 29 manipulatives, with approximately 100 full-color photographed examples. Science topics are divided into four categories, Physical Science/Physics, Astronomy, Earth Science, and Life Science/Biology. The book contains thousands of ideas for teaching science using graphic organizers, as well as five black-line art examples per page.




The Earth Science Book


Book Description

If you're looking for the most fun on Earth. * Make your own fossils (pg. 39) * Create a tsunami in your bathtub (pg. 45) * Watch a volcano erupt (pg. 47) * Follow the path of a mini-glacier (pg. 73) No other book on Earth science is packed with so much fun. TheEarth Science Book's pages overflow with dozens and dozens ofenjoyable, educational, and easy-to-do activities that explainbasic Earth science facts and important environmental issues. Usingsimple materials you can find around the house or in yourneighborhood, these activities show you all about the planet Earth,its composition and atmosphere, life on Earth, and much more.




The Curious Kid's Science Book


Book Description

What happens if you water plants with juice? Where can you find bacteria in your house? Is slug slime as strong as a glue stick? How would your child find the answers to these questions? In The Curious Kid's Science Book, your child will learn to design his or her own science investigations to determine the answers! Children will learn to ask their own scientific questions, discover value in failed experiments, and — most importantly — have a blast with science. The 100+ hands-on activities in the book use household items to playfully teach important science, technology, engineering, and math skills. Each creative activity includes age-appropriate explanations and (when possible) real life applications of the concepts covered. Adding science to your at-home schedule will make a positive impact on your child's learning. Just one experiment a week will help build children's confidence and excitement about the sciences, boost success in the classroom, and give them the tools to design and execute their own science fair projects.




Too Much Glue


Book Description

This enhanced eBook features read-along narration. Although Matty's art teacher has warned him that too much glue never dries, Matty loves glue. After all, he and his dad make oodles of glue projects at home. One day during art class, Matty finds the fullest bottles of glue, and the fun begins. With a squeeze and a plop, Matty pours a lake of glue before belly-flopping right in the middle and finds himself stuck to the desk. When Matty's dad arrives at the school, instead of being mad, he celebrates his son's creativity and calls him a work of art. With vibrant language and artwork and a wild, silly plot, Too Much Glue is sure to appeal to all children who love to get messy.







Pacific CRYSTAL Centre for Science, Mathematics, and Technology Literacy: Lessons Learned


Book Description

The University of Victoria Pacific Centre for Scientific and Technological Literacy is one of five Centres for Research into Youth, Science Teaching and Learning (CRYSTAL) funded for 5 years (2005–2010) by the Natural Sciences and Engineering Research Council Canada (NSERC). Pacific CRYSTAL intended to promote scientific, mathematical, and technological literacy for responsible citizenship through research partnerships with university and educational communities. Pacific CRYSTAL’s functional structure consisted of 3 research and development nodes connected to a leadership and administrative node, which was charged with facilitating the activities of 19 projects and 42 principal investigators, partners, and research associates. Node 1, an incubation centre, involved extracurricular authentic science, mathematics, and technology experiences; Node 2, a classroom testing environment, field-tested instructional ideas and strategies to develop evidence-based practices; and Node 3, lighthouse schools, involved systemic change and leadership opportunities that adapted, demonstrated, and disseminated tested ideas, resources, and strategies to a much broader education community and attempted to influence public policy. This book provides descriptions of the target goals, research and development projects, and lessons learned.




Cases on Research-Based Teaching Methods in Science Education


Book Description

While the great scientists of the past recognized a need for a multidisciplinary approach, today’s schools often treat math and science as subjects separate from the rest. This not only creates a disinterest among students, but also a potential learning gap once students reach college and then graduate into the workforce. Cases on Research-Based Teaching Methods in Science Education addresses the problems currently facing science education in the USA and the UK, and suggests a new hands-on approach to learning. This book is an essential reference source for policymakers, academicians, researchers, educators, curricula developers, and teachers as they strive to improve education at the elementary, secondary, and collegiate levels.




Application of Visual Data in K-16 Science Classrooms


Book Description

This book examines visual data use with students (PK-16) as well as in pre-service in- service science teacher preparation. Each chapter includes discussion about the current state of the art with respect to science classroom application and utilization of the particular visual data targeted by the author(s), discussion and explanation about the targeted visual data as applied by the author in his/her classroom, use of visual data as a diagnostic tool, its use as an assessment tool, and discussion of implications for science teaching and/or science teacher preparation. Although the body of research and practice in this field is growing, there remains a gap in the literature about clearly explicating the use of visual data in the science classroom. A growing body of literature discusses what visual data are (although this topic is still viewed as being at the beginning of its development in educators’ thinking), and there are some scattered examples of studies exploring the use of visual data in science classrooms, although those studies have not necessarily clearly identified their foci as visual data, per se. As interest and attention has become more focused on visual data, a logical progression of questioning has been how visual data are actually applied in the science classroom, whether it be early elementary, college, or somewhere in between. Visual data applications of interest to the science education community include how it is identified, how it can be used with students and how students can generate it themselves, how it can be employed as a diagnostic tool in concept development, and how it can be utilized as an assessment tool. This book explores that, as well as a variety of pragmatic ways to help science educators more effectively utilize visual data and representations in their instruction.