Science education in the early years is vital in assisting young children to come to know about and understand the world around them. Science in Early Childhood covers the theoretical underpinnings and practical applications of teaching science in early childhood settings in way that is engaging and accessible. It is a comprehensive resource for students, as well as early childhood teachers and carers and provides up-to-date coverage of the Early Years Learning (...) Framework. This text explores the current issues and debates in early childhood science education from an Australian perspective, whilst recognising the links to international practice and research. A summary at the start of each chapter helps students identify the key themes and ideas in early science education and application boxes throughout the text illustrate how theories relate to practice. Written by experts in the field, Science in Early Childhood is essential reading for pre-service teachers. (shrink)

Educational interventions are necessary to develop mathematical competence at early ages and prevent widespread mathematics learning failure in the education system as indicated by the results of European reports. Numerous studies agree that domain-specific predictors related to mathematics are symbolic and non-symbolic magnitude comparison, as well as, number line estimation. The goal of this study was to design 4 digital learning app games to train specific cognitive bases of mathematical learning in order to create resources and promote the (...) use of these technologies in the educational community and to promote effective scientific transfer and increase the research visibility. This study involved 193 preschoolers aged 57–79 months. A quasi-experimental design was carried out with 3 groups created after scores were obtained in a standardised mathematical competence assessment test, i.e., low-performance group, high-performance group, and control group. The results show that training with the 4 digital learning app games focusing on magnitude, subitizing, number facts, and estimation tasks improved the numerical skills of the experimental groups, compared to the control group. The implications of the study were, on the one hand, provided verified technological tools for teaching early mathematical competence. On the other hand, this study supports other studies on the importance of cognitive precursors in mathematics performance. (shrink)

It's Still Debatable! encourages scientific literacy by showing you how to teach the content and thinking skills K- 5 students need to explore real-world questions like these: - Is football too dangerous for kids? - Do we need zoos? - Should distracted walking be illegal? At the core of the exploration is the Socioscientific Issues Framework. It uses debatable, science-related societal questions, or socioscientific issues, to address science content, help children learn to apply the content, and encourage them to become (...) informed citizens. The book supports the Next Generation Science Standards; links to the Common Core State Standards, National Curriculum Standards for Social Studies, and C3 Framework; and is developmentally appropriate for diverse elementary classrooms. It also includes a chapter especially for use in methods courses and professional development programs. The framework gives students practice in the research, analysis, and argumentation necessary to grapple with difficult questions with roots in life, physical, Earth, and environmental science. After introducing the framework and explaining how it supports the standards, the book shows you how to implement the concept through 14 lessons. Because the book is specifically for elementary grades, the author made it a teach-ready resource that integrates science into your packed school days. You get clear and accessible background information, practical guidance on how to use the lessons, and developmentally appropriate assessments and handouts. You even find out how to develop your own socioscientific issues curriculum. (shrink)

In this memoir I track the people, events and influences which have had a bearing on my ability to work alongside Māori and Pacific students and academics. From a childhood in rural Aotearoa New Zealand, through sporadic and prolonged university studies, to teaching in Schools of Education at the University of Waikato and Auckland University of Technology, I have always been fascinated by the possibilities of thinking differently. This underpins my experience in supervising and supporting Māori and (...) Pasifika academics, at the post graduate level and as early career researchers. (shrink)