Complexity And Simplicity In Science Education

This edited volume brings together a broad range of international science education studies, focusing on the interplay of teaching and learning science. It recognizes the complexity present in today’s education, associated with major science related issues faced by society, such as climate change, diseases and pandemics, global conflicts over energy, food and water. The studies discussed in this volume are focused on presenting different opportunities to teach these convoluted matters in order to find simplicity within the complexity and make it accessible to learners. They bring together the challenges of preparing the students of today to become scientifically informed citizens of tomorrow.

This edited volume brings together a broad range of international science education studies, focusing on the interplay of teaching and learning science. It recognizes the complexity present in today's education, associated with major science related issues faced by society, such as climate change, diseases and pandemics, global conflicts over energy, food and water. The studies discussed in this volume are focused on presenting different opportunities to teach these convoluted matters in order to find simplicity within the complexity and make it accessible to learners. They bring together the challenges of preparing the students of today to become scientifically informed citizens of tomorrow.

Researchers from all over the world are fascinated by the question on how to design powerful learning environments and how to effectively integrate computers in instruction. Members of the special interest groups 'Instructional Design' and 'Learning and Instruction with Computers’ of the European Association for Research on Learning and Instruction belong to this group of fascinated researchers. By presenting their research on these questions in this book, these researchers provide empirically based answers, finetune previously suggested solutions, and raise new questions and research paths. The contributions each try to deal with the actual complexity of learning environments, while avoiding naïve simplicity. The book presents an up-to-date overview of current research by experienced researchers from well-known research centers. This book is intended for an audience of educational researchers, instructional designers, and all those fascinated by questions with respect to the design of learning environments and the use of technology.

"If it were necessary, for some curious legal reason, to draw a clear line between human and nonhuman--for example, if a group of australopithecines were to appear and one had to decide if they were to be protected by Fair Employment Laws or by the ASPCA--I would welcome them as humans if I knew that they were seriously concerned about how to bury their dead." In this witty and wise way, Lawrence Slobodkin takes us on a spirited quest for the multiple meanings of simplicity in all facets of life. Slobodkin begins at the beginning, with a consideration of how simplicity came into play in the development of religious doctrines. He nimbly moves on to the arts--where he ranges freely from dining to painting--and then focuses more sharply on the role of simplicity in science. Here we witness the historical beginnings of modern science as a search for the fewest number of terms, the smallest number of assumptions, or the lowest exponents, while still meeting criteria for descriptive accuracy. The result may be an elegant hypothetical system that generates the apparent world from less apparent assumptions, as with the Newtonian revolution; or it may mean deducing non-obvious processes from everyday facts, as with the Darwinian revolution. Slobodkin proposes that the best intellectual work is done as if it were a game on a simplified playing field. He supplies serious arguments for considering the role of simplification and playfulness in all of our activities. The immediate effect of his unfailingly captivating essay is to throw open a new window on the world and to refresh our perspectives on matters of the heart and mind.

The International Handbook of Science Education is a two volume edition pertaining to the most significant issues in science education. It is a follow-up to the first Handbook, published in 1998, which is seen as the most authoritative resource ever produced in science education. The chapters in this edition are reviews of research in science education and retain the strong international flavor of the project. It covers the diverse theories and methods that have been a foundation for science education and continue to characterize this field. Each section contains a lead chapter that provides an overview and synthesis of the field and related chapters that provide a narrower focus on research and current thinking on the key issues in that field. Leading researchers from around the world have participated as authors and consultants to produce a resource that is comprehensive, detailed and up to date. The chapters provide the most recent and advanced thinking in science education making the Handbook again the most authoritative resource in science education.

This book synthesizes a wealth of international research on the critical topic of ‘fostering understanding of complex systems in biology education’. Complex systems are prevalent in many scientific fields, and at all scales, from the micro scale of a single cell or molecule to complex systems at the macro scale such as ecosystems. Understanding the complexity of natural systems can be extremely challenging, though crucial for an adequate understanding of what they are and how they work. The term “systems thinking” has become synonymous with developing a coherent understanding of complex biological processes and phenomena. For researchers and educators alike, understanding how students’ systems thinking develops is an essential prerequisite to develop and maintain pedagogical scaffolding that facilitates students’ ability to fully understand the system’s complexity. To that end, this book provides researchers and teachers with key insights from the current research community on how to support learners systems thinking in secondary and higher education. Each chapter in the book elaborates on different theoretical and methodological frameworks pertaining to complexity in biology education and a variety of biological topics are included from genetics, photosynthesis, and the carbon cycle to ecology and climate change. Specific attention is paid to design elements of computer-based learning environments to understand complexity in biology education.

This book attempts to re-imagine the purpose of the doctorate, which has historically been used to prepare leaders who will work to improve the sciences (social and physical), humanities, and professions, while articulating curriculum as a living shape where students, faculty, and institution melded in a humanist and creative process. This idea, seriously eroded by the explosion in doctoral degrees between the early 1970s (20,000 doctorate per year) and last year (to over 46,000)—and an explosion in doctoral and research universities that has created a crossroads for the doctorate in America. We believe the value of a doctorate is Intellectual Capital, and are particularly interested in encouraging reflection as an important characteristic of a successful quality doctoral program. We posit that a “good doctoral” experience fosters active engagement in reflection on all elements of our work—the intellectual, advisory, and pedagogical work of faculty, curricular opportunities, as well as the intellectual of the doctoral candidates through an avocation that drives research and theory in our fields. Specific issues raised in this edited volume include comprehensive analysis of programs, rethinking evaluation and programmatic coherence, doctoral degrees beyond the discipline, subject, and field, and implications of individual identity. Along with authors’ chapters, we paid attention to encourage reflection as an important characteristic of a quality doctoral program; positing that “good doctoral” experiences foster active engagement in reflection on all elements of the doctoral experience, including program and curricular issues, personal relationships, work, and the creation of a community of scholars.

Understanding the complexity of the natural world and making sense of phenomena is one of the main goals of science and science education. When investigating complex phenomena, such as climate change or pandemic outbreaks, students are expected to engage in systems thinking by considering the boundaries of the investigated system, identifying the relevant components and their interactions, and exploring system attributes such as hierarchical organization, dynamicity, feedback loops, and emergence. Scientific models are tools that support students’ reasoning and understanding of complex systems, and students are expected to develop their modeling competence and to engage in the modeling process by constructing, testing, revising, and using models to explain and predict phenomena. Computational modeling tools, for example, provide students with the opportunity to explore big data, run simulations and investigate complex systems. Therefore, both systems thinking and modeling approaches are important for science education when investigating complex phenomena.