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1.
In their article, “Space, relations, and the learning of science,” Wolff-Michael Roth and Pei-Ling Hsu draw our attention to the importance of field in the teaching and learning of science. While the Roth and Hsu study is focused on the scientific research laboratory as an internship setting for the teaching of science, this response to their paper expands the discussion of the settings where science is taught in order to bring to the fore some of the affordances and challenges associated with teaching science in specific fields. By extending our thinking about the settings where science is taught/learned and the active role these settings play in teaching our students, we can re-envision how to better utilize a variety of fields in the teaching of science. The notion of ‘field of care’ is explored as a way of both finding and building connections between students and the settings where science is experienced.  相似文献   

2.
In Space, relations, and the learning of science, Wolff-Michael Roth and Pei-Ling Hsu use ethnomethodology to explore high school interns learning shopwork and shoptalk in a research lab that is located in a world class facility for water quality analysis. Using interaction analysis they identify how spaces, like a research laboratory, can be structured as smart spaces to create a workflow (learning flow) so that shoptalk and shopwork can projectively organize the actions of interns even in new and unfamiliar settings. Using these findings they explore implications for the design of curriculum and learning spaces more broadly. The Forum papers of Erica Blatt and Cassie Quigley complement this analysis. Blatt expands the discussion on space as an active component of learning with an examination of teaching settings, beyond laboratory spaces, as active participants of education. Quigley examines smart spaces as authentic learning spaces while acknowledging how internship experiences all empirical elements of authentic learning including open-ended inquiry and empowerment. In this paper I synthesize these ideas and propose that a narrative structure might better support workflow, student agency and democratic decision making.  相似文献   

3.
In this metalogue we build on the arguments presented by Puvirajah, Verma and Webb to discuss the nature of authentic science learning experiences in context of collaborations between schools and out-of-school time settings. We discuss the role of stakeholders in creating collaborative science learning practices and affordances of out of school time and formal science learning contexts. We contend that authentic science learning experiences are those where science learning happens within a social milieu and advocate for true collaborations between schools and informal settings in ways that emphasize the goals of the collaboration and strengths of each setting.  相似文献   

4.
《Learning and Instruction》2000,10(4):331-359
The goal of this article is to show how experience transcends subject-matter planning, and the paradoxical nature of planning for authentic experiences. Subject matters are defined here as disciplinary genres. They are integrated into a new framework for semiotic research into disciplinary didactics (explained in the article) as a prototype discipline. The data that serve as the basis for what the article demonstrates relate to oral communication in elementary-level learning groups (groups of 9-year-olds). An analytic model is presented which indicates the reciprocal influence of the premises for action and situated links in learning. The paper uses the data to verify how authentic experiences diverge from what has been planned. The data suggest that academic experience can only be authentic if it is organised on the basis of premises that serve as springboards for conceptual relations that are innovative and thus difficult to set criteria for.  相似文献   

5.
Research apprenticeships for secondary students provide authentic contexts for learning science in which students engage in scientific investigations with practicing scientists in working laboratory groups. Student experiences in these research apprenticeships vary depending on the individual nature of the laboratory in which students have been placed. This study explores potential relationships among student experiences in apprenticeship contexts and desired student outcomes (e.g. science content knowledge, understandings of nature of science, and aspirations for science oriented career plans). The following two research questions guided the study: How do participant experiences in and outcomes resulting from an authentic research program for high school students vary? How does variation in participant experiences in an authentic research program relate to participant outcomes? Primary data sources were student and mentor interviews in addition to student generated concept maps. Results indicated that the greatest variance in student experiences existed in the categories of collaboration, epistemic involvement, and understandings of the significance of research results. The greatest variation in desired student outcomes was observed in student understandings of nature of science and in students’ future science plans. Results suggested that collaboration and interest in the project were experience aspects most likely to be related to desired outcomes. Implications for the design of research apprenticeships for secondary students are discussed.  相似文献   

6.
Research on understanding the full extent that an authentic science research experience engages students in how scientists think and act is sparse. ‘Learning-science-by-doing-science’ (LSDS) is an emerging self-guided process-learning model in postsecondary science education. It offers authentic science research opportunities that drive students to think and act like scientists. This study investigates the LSDS approach as a potential model for science learning at postsecondary level and aims to answer a main research inquiry – what are the students’ and teaching staff’s perceptions of students’ learning gains and the quality of their learning experiences in an authentic research environment within the LSDS model? To answer this question, data were collected from the students, alumni, instructors, teaching assistants and the program director via questionnaires, focus groups and interviews. Students’ and staff’s lived experiences and their perceptions on their authentic research experiences within the LSDS model were used to articulate the key attributes and stages of the LSDS model. The outcomes of this study can be used to help other science programs implement similar authentic research process learning approaches in their own contexts.  相似文献   

7.
Undergraduate research experiences are being incorporated into degree programs with increasing frequency. However, there has been little study into their effectiveness in preparing students for research or into the learning gains that students realise from one or more research experiences. We surveyed science students in an elite, research‐based undergraduate degree program at a research‐intensive university. These students complete six research projects during their degree and we aimed to delineate factors that students perceive as leading to either good or bad experiences. Two factors stand out as contributing to a successful research experience: the supervisor, with students reporting both pedagogic and affective benefits of good supervision; and the feeling that they are doing authentic science. Surprisingly, given the research‐intensive nature of this degree, the learning gains students report relate to both an appreciation of what research is like and life skills, such as time management, rather than scientific thinking skills.  相似文献   

8.
Abstract

Informal learning environments often host teachers for learning opportunities, but little is known about the impact of these experiences on teacher professional development (PD). This article describes a unique collaborative PD experience between zoological park personnel and university faculty, examining the impact on teacher content knowledge, attitudes, and classroom lessons. Our findings suggest that the PD improved science content, but made no impact on already high attitudes toward science. In light of the high level of self-reported satisfaction and high frequency of teacher lesson plan use, we propose that the PD had other positive outcomes such as pedagogical knowledge and authentic learning experiences.  相似文献   

9.
This article reports on a 2½‐year collaborate project to reform the teaching and learning of science in the context of Mae Jemison Elementary, the lowest performing elementary school in the state of Louisiana. I outline a taxonomy of authentic science inquiry experiences and then use the resulting framework to focus on how project participants interpreted and enacted ideas about collaboration and authenticity. The resulting contextually authentic science inquiry model links the strengths of a canonically authentic model of science inquiry (grounded in the Western scientific canon) with the strengths of a youth‐centered model of authenticity (grounded in student‐generated inquiry), thus bringing together relevant content standards and topics with critical social relevance. I address the question of how such enactments may or may not promote doing science together and consider the implications of this model for urban science education. © 2006 Wiley Periodicals, Inc. J Res Sci Teach 43: 695–721, 2006  相似文献   

10.
The ethnography presented by van Eijck and Roth focuses on the activities of people involved in a government funded internship program in conservation and restoration, which was offered by a ‘multidisciplinary research center’ through a local First Nation adult education center. The internship was designed, in partnership with a local non-profit conservation society (OceanHealth), to appeal to First Nation men and women considering career change, returning to school, or re-entering the work place. The primary aim of the internship was to ‘provide authentic science for diverse student populations (and their teachers), with particular attention to the needs of students from First Nations, to become scientifically literate to the extent that it prepares them for participating in public debates, community decision-making, and personal living consistent with long-term environmentally sustainable forms of life’. The authors report that at least one of the two interns was not interested in science and a WSáNEC elder expressed dissatisfaction with the efforts to establish the nature park and its current approved uses. Van Eijck and Roth argue that the divergence between the project aims and the goals of the participants are a result of how ‘place’ is viewed in place-based education and that disagreements like these can be resolved if place is theorized as chronotope. There are many interesting ideas raised and directions taken in the article by van Eijck and Roth. After several discussions during the review process, we decided to focus our forum response on the meaning of ‘place’ in place-based education, the utility of theorizing place as a chronotope, the implications for teaching–learning (‘education’), and musings on what remains unclear.  相似文献   

11.
The zones framework conceived for the examination of thinking about teaching, is validated, and extended to the examination of thinking about learning. This is done by extending the framework to examine thinking about teaching and learning in a population of science graduate student teaching assistants. Semi‐structured interviews explore these students’ teaching and learning experiences, how their experiences relate to their knowledge of educational theory, and how they have formed their ideas about what constitutes good teaching. The article demonstrates that the zones framework can be extended to thinking about learning, and that it is appropriate for examining the thinking of students as well as teachers. Recommendations for further research are made, including the exploration of discipline‐specific thinking.  相似文献   

12.
13.
This article addresses the question of how science learning can be improved. It recognizes that, while learners themselves are responsible for their own learning, the quality of this learning is greatly influenced when appropriate resources are available to learners. These resources are provided through a partnership between teachers and learners. Three different types of resource are discussed. Tools, in the form of computer tools and conceptual tools, make tasks easier and allow learners to undertake tasks they would not otherwise be able to do. Tasks can facilitate effective learning by creating effective spaces for learners to work in, embodying key aspects of the disciplines of science, providing effective and authentic opportunities for learners to learn, and facilitating a dialogue between learners ideas and their experiences of the natural world. Environment – the ecology in which learning happens – provides three sources of information through the human, social, and conceptual worlds. When key aspects of these worlds are manifested in the environment, they scaffold the learning of science content, the nature of science, and the learning process itself, all of which are required for the deep understanding of science that constitutes improved science learning.  相似文献   

14.
Giving students a purpose and a passion for sharing their thinking through authentic learning experiences and giving them tools for writing through which they can risk new vocabulary, new language, and new thought is critical for the linguistic and cognitive development of students. Furthermore, students develop a deep understanding of content they have heard and read when given time to process information through writing and speaking. This article describes one teacher’s quest to identify and implement effective research-based instructional strategies that she could use to successfully support her kindergarten ELL students during science instruction.  相似文献   

15.
This article is the first to describe the discoursal construction of an adolescent community of practice (CoP) in a non-school setting. CoPs can provide optimal learning environments. The adolescent community centered around science journalism and positioned itself dichotomously in relationship to school literacy practices. The analysis focuses on recordings from a panel-style research interview from an early implementation of the Science Literacy Through Science Journalism (SciJourn) project. Researchers trained high school students participating in a youth development program to write science news articles. Students engaged in the authentic practices of professional science journalists, received feedback from a professional editor, and submitted articles for publication. I used a fine-grained critical discourse analysis of genre, discourse, and style to analyze student responses about differences between writing in SciJourn and in school. Students described themselves as agentic in SciJourn and passive in school, using an academic writing discourse of deficit to describe schooling experiences. They affiliated with and defined a SciJourn CoP, constructing positive journalistic identities therein. Educators are encouraged to develop similar CoPs. The discursive features presented may be used to monitor the development of communities of practice in a variety of settings.  相似文献   

16.
The article reports the findings of a study conducted to inform a teacher preparation program of the extent to which they were providing students with experiences consistent with the program goals. The Constructivist Learning Environment Survey (CLES) was administered three times to participants in a 1-year program for graduate students seeking licensure in mathematics and science. These data were compared to program course syllabi and participant reflections to generate an account of institutional practice. From this account, observations about the program and a subsequent hypothetical learning trajectory were generated. It is recommended that the program find additional ways to explicitly integrate constructivist learning environment components into coursework and field experiences, specifically in the area of Critical Voice. Furthermore, the program should continue to structure programs components differently for mathematics and science and continue to offer a year-round field experience.  相似文献   

17.
Grounded in the theoretical approaches of experiential learning and inquiry‐based learning, adventure learning (AL) is a hybrid distance education approach that seeks to transform the experiences of students by having learners explore real‐world issues and pursue answers to their own questions in an authentic, anchor‐based environment. In this article we present a theoretical overview of AL, provide a brief summary of recently examined AL impacts in the classroom, and use a phenomenological lens to examine the experience of an educator/explorer who traveled by dogsled over 3000 miles across the Arctic to engage students and teachers from around the world in a truly authentic learning context. We conclude by offering recommendations for teachers who wish to embark on their own unique AL experiences with their students (without necessarily having to travel to the Arctic).  相似文献   

18.
This article reports an ethnographic study of a molecular biology research laboratory, “Sally's Lab.” By studying the daily practices of the lab members, and interpreting these observations through an anthropological lens grounded in practice theory, I portray the social and cultural construction of a scientific community. Findings include an examination of how good science practice was operationalized, status in the lab was constructed, members gained or lost interest in continuing on in careers in research science, and individual members conformed to and resisted localized norms of scientific practice. These issues have direct relevance to our work as science educators, in terms of how we present science practice to our students. For example, when K–16 science students engage in activities based on authentic science practice, upon whose experiences are these simulations based? The current study shows that there is not just one acceptable way to do science, nor one set of experiences that pertain to all members within a given community of science practice. Likewise, there should not be just one way that science is presented in school, nor one set of experiences we expect all our students to take from our classes. © 2001 John Wiley & Sons, Inc. J Res Sci Teach 38: 387–407, 2001  相似文献   

19.
The purpose of this article is to support members of a student's multidisciplinary team to identify complex factors involved in providing valid classroom-based assessment data, including issues surrounding technology-based assessment for students who are deaf or hard of hearing (DHH). The diversity of this population creates unique challenges in creating guidelines for assessment. An overview of the diversity of DHH students is used to provide a framework for examining current assessment practices, including both effective and ineffective practices. Cognitive and linguistic learning differences and diverse language learning experiences in the population are discussed as they relate to assessment protocols. Paralleling technology-based learning experiences with comparable technology-based assessment experiences is also presented. Recommendations for planning for accessible and meaningful assessment include the use of innovative technologies to align instruction and assessment.  相似文献   

20.
Working at scientists’ elbows is one suggestion that educators make to improve science education, because such “authentic experiences” provide students with various types of science knowledge. However, there is an ongoing debate in the literature about the assumption that authentic science activities can enhance students’ understandings of scientific practice. The purpose of the study is to further address the debate in terms of the ethnographic data collected during an internship programme for high school students right through to their public presentations at the end. Drawing on activity theory to analyse these presentations, we found that students presented scientific practice as accomplished by individual personnel without collaboration in the laboratory. However, our ethnographic data of their internship interaction show that students have had conversations about the complex collaborations within and outside the laboratory. This phenomenon leads us to claim that students experienced authentic science in their internships, but their subsequent representations of authentic science are incomplete. That is, participating in authentic science internships and reporting scientific practice are embedded activities that constitute different goals and conditions rather than unrefracted reflections of one another. The debate on the influence on students’ understanding of science practice is not simply related to situating students in authentic science contexts, but also related to students’ values and ideology of reporting their understanding of and about science. To help students see these “invisible” moments of science practice is therefore crucial. We make suggestions for how the invisible in and of authentic science may be made visible.  相似文献   

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