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This resource takes SOLO Taxonomy and combines it with current theories on how students learn and effective pedagogies. It shows how to develop curious minds in science by accessing learning through the science capabilities, collaboration, citizenship and community.
This book guides teachers to the right instructional approach to use at each learning phase so all students demonstrate more than a year′s worth of science learning per school year.
Educational Psychology Series: Evaluating the Quality of Learning: The SOLO Taxonomy (Structure of the Observed Learning Outcome) focuses on the approaches, methodologies, and techniques employed in the valuation of the quality of learning. The publication first offers information on the quality and quantity of learning and origin and description of the Structure of the Observed Learning Outcome (SOLO) taxonomy. Discussions focus on general intellectual development and the growth of quality; some assumptions and applications of stage theory; from developmental stage to levels of learning quality; and general intellectual development and the growth of quality. The text then examines the teaching of history, elementary mathematics, English, and geography. Topics include interpreting a map and drawing conclusions, explaining a natural phenomenon, appreciation of poetry, implications for the teaching of history, English, and mathematics, numbers and operations, and general application of SOLO to history. The manuscript takes a look at modern languages, place of the taxonomy in instructional design, and some methodological considerations. Concerns include alternative formats for obtaining SOLO responses, instructional processes, curriculum analysis, remediation, and teacher intentions. The publication is a vital source of data for educators interested in the SOLO taxonomy.
Students often think of science as disconnected pieces of information rather than a narrative that challenges their thinking, requires them to develop evidence-based explanations for the phenomena under investigation, and communicate their ideas in discipline-specific language as to why certain solutions to a problem work. The author provides teachers in primary and junior secondary school with different evidence-based strategies they can use to teach inquiry science in their classrooms. The research and theoretical perspectives that underpin the strategies are discussed as are examples of how different ones areimplemented in science classrooms to affect student engagement and learning. Key Features: Presents processes involved in teaching inquiry-based science Discusses importance of multi-modal representations in teaching inquiry based-science Covers ways to develop scientifically literacy Uses the Structure of Observed learning Outcomes (SOLO) Taxonomy to assess student reasoning, problem-solving and learning Presents ways to promote scientific discourse, including teacher-student interactions, student-student interactions, and meta-cognitive thinking
The purpose of this text is to further flesh out some of the factors--specific dimensions of our n-dimensional hyperspace--important to inquiry in the classroom. As such, some of the of the factors have already been introduced, others will be new to the conversation. In our discussions that lead to the preparation of this manuscript, it became clear that each of us was interested in classroom inquiry, and so we each wanted to situate our analysis in these classrooms. For that purpose, our discussions are organized into sections. Each section begins with one (or more) vignette--snippets of science classrooms--that the authors then discuss how this vignette demonstrates some aspect of the specific dimension that they are charged with discussing. Because inquiry is so multifaceted and its portrayals are often complex and nuanced, the discussion of the dimension is broken into separate essays--each of which addresses the focal dimension in different ways. Following the essay, a broader discussion across the essays is offered to support your sense making. As we began this effort, we selected what we understood to be the most influential dimensions of inquiry in the classroom. But certainly there are others that can and should have been included, (i.e., the role of curriculum in supporting (or confining) the enactment of inquiry, the manner in which inquiry can shape students' knowledge, the role systemic efforts can have in enabling inquiry). But given the confines of one text, we've chosen what we understood to be the central components, and these have been arranged into 6 sections. Our vision is that each of these sections can be self-supporting, so their appearance in the text doesn't represent the order in which they must be read. Ideally, the reader would engage in the introduction, then select the section that addresses the dimension influencing classroom inquiry that is of greatest importance. The only exception to this is section 6, which is a specific form of enactment of classroom inquiry; engagement with this section may be best augmented after reading the sections that interest you.
This is a book for teachers and school leaders on formative assessment i.e., assessment as learning where assessment occurs throughout the learning process to inform learning as opposed to assessment that occurs at the end of a learning unit to measure what students have learned (summative assessment). Formative assessment emphasizes the role of the student, not only as a contributor to the assessment and learning process, but the critical connector between them. It defines assessment of learning, assessment for learning and assessment as learning, making a case for assessment as learning. It addresses assessment in the context of what learning is. It shows how to use formative assessment to motivate student learning, help students make connections so that they move from emergent to proficient, extend their learning and to help them become reflective self-regulators of their own learning. It explores how teachers can make the shift to formative assessment by engaging in conceptual change.
In response to requests by science teachers for guidance on the process of mentoring in schools, this text provides an interactive, activities-based resource. It takes into account the progressive development of skills and competencies, for all those involved in the training of science teachers; pre-service, in-service and quality control. Activities are directly related to classroom and laboratory planning, organisation and management and include general question and answer exercises.; The book covers nine areas of science teacher competence crossed with five levels of progression to give a flexible programme of training. Each activity has a commentary for mentors and notes for student teachers, and discusses the rationale behind each activity. Five activities are written specifically to help mentors review progress at each of the five levels.; Additionally, it can be used by: experienced teachers for refreshing their own practice; Heads of Science Departments for upgrading science teaching within the departments; and those concerned with quality control and certification to recommend activities, taken from the book, to aid further professional development.
