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1.
The authors have, for some years, studied the concept of ‘possibility thinking’ (PT), or ‘what if’ and ‘as if’ thinking in children aged 3–11, which generates novelty – and the pedagogical strategies which foster it. They have argued, on the basis of previous qualitative studies, that ‘PT’ is at the core of creativity in education. Having begun as a conceptual study for 7 years, this team has undertaken empirical studies of PT in classrooms. This paper discusses findings from the third phase of empirical work focusing on 9- to 11-year olds. The particular research question addressed here is ‘What characterises possibility thinking as manifest in the learning engagement of children aged 9–11?’. In a small-scale qualitative study, involving co-participation with teachers, the paper features episode analysis of naturalistic video data featuring children aged 9–11 in two schools. It focuses on PT evidenced by children engaged in a range of classroom activities, some established as individual activities and others as group work. The study reveals some features of PT in both sites (question-posing [Q-P], question-responding [Q-R], self-determination, intentional action, development, being imaginative, play/playfulness, immersion and innovation) to differing degrees of strength. Risk-taking was absent in both and a new feature, collaboration, evident in both. Differences were documented in how Q-P and Q-R manifest, compared with earlier studies with younger children. This study seeks to make an evidence-based contribution to the characterisation of PT as driving creativity in the classroom, with implications for research and practice.  相似文献   

2.
Current research indicates that creativity in teaching can and should be enhanced in order to promote student learning. This article begins by stressing the importance of creativity in education and the ways in which creative teaching benefits students. Next, it addresses key points for better understanding classroom creativity by identifying common barriers that counteract or hinder teacher creativity. After identifying the characteristics of teachers who are considered creative educators, this article concludes with general recommendations, as well as specific strategies, for increasing the level of creative teaching in today's classrooms.  相似文献   

3.

This classroom observation study explored how science teachers (N = 22) teach for creativity in grades 5–10 in Oman. We designed an observation form with 4 main categories that targeted the instructional practices related to teaching for creativity: questioning strategy, teacher’s responses to students’ ideas, classroom activities to support creativity, and whole-lesson methods that foster creativity. An open-ended survey was also designed to explore participants’ justifications for their instructional decisions and practices. The findings indicate that the overall level of teaching for creativity was low and that participants’ performance was the highest for teacher’s responses to students’ ideas category and the lowest for classroom activities to support creativity category. We observed that a teacher-centered approach with instructional practices geared toward preparing students for examinations was dominant and that these science teachers were bound to the textbook, following cookbook-style activities. Participants believed that they did not have enough time to cover the content and teach for creativity and that they were not prepared to teach for creativity. Based on these findings, we recommend that programs be developed to prepare science teachers to teach for creativity.

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4.
The three case studies, drawing on qualitative analysis of surveys, interviews, program artifacts, and classroom observation, describe secondary science preservice teachers' evolving expertise at providing opportunities for linguistically diverse students to learn and demonstrate what they have learned (i.e., equitable assessment). The teachers became more knowledgeable about the role of language in assessment and incorporated scientific discourse while assessing in their teaching practicum. Yet, two tensions emerged, which inform the preparation of future science teachers: (a) should language demands of science assessment be reduced or scaffolded and (b) should language use in science as well as scientific understanding be assessed?  相似文献   

5.
以广东省两所普通高中的学生为调查对象,采用《青少年科学创造力测验》和《中学课堂教学策略感知量表》,测量中学生的科学创造力水平、教师的课堂教学策略实效以及课堂教学策略对中学生科学创造力的影响情况,研究发现,中学课堂教学策略中的教学动机策略维度和教学方法策略维度能够正向预测学生的科学创造力水平。为了优化课堂教学策略,促进学生科学创造力的发展,教师可以通过教学动机策略维持学生认知与情感的开放性、制造学生情感与认知的冲突;通过教学方法策略引导学生从多个角度发现和解决问题、训练学生复杂的思维过程和想象力、提升学生解决真实问题的能力。  相似文献   

6.
Abstract

Peirce made repeated attempts to clarify what he understood as abduction or creative reasoning in scientific discoveries. In this article, we draw on past and recent scholarship on Peirce’s later accounts of abduction to put a case for how teachers can apply his ideas productively to elicit and guide student creative reasoning in the science classroom. We focus on (a) his rationale for abduction, (b) conditions he recognised as necessary to support this speculative reasoning, (c) pragmatic strategies to guide inquiry and test conjectural hypotheses, and (d) his growing recognition of creative dimensions to reasoning beyond abductive inference-making. We illustrate this case through examples of a guided inquiry approach to student claim-making in the science classroom.  相似文献   

7.
Various factors influence the development of creative potential, including everything from individual differences to the kinds of experiences and opportunities that creators experience throughout the lifespan. When it comes to nurturing creativity in the classroom, the learning environment is one of the most important factors – determining, in large part, whether creative potential will be supported (or suppressed). In short, classroom context matters. It is one thing to recognize that the classroom environment impacts the development of creative potential, it is quite another to understand just what it takes to develop an optimally supportive creative learning environment. This is because many of the features of optimal learning environments are quite subtle and even counterintuitive. In this paper, we discuss insights from the research on how teachers might establish a creativity-supportive learning environment in their classroom.  相似文献   

8.
When evaluating equity, researchers often look at the “achievement gap.” Privileging knowledge and skills as primary outcomes of science education misses other, more subtle, but critical, outcomes indexing inequitable science education. In this comparative ethnography, we examined what it meant to “be scientific” in two fourth‐grade classes taught by teachers similarly committed to reform‐based science (RBS) practices in the service of equity. In both classrooms, students developed similar levels of scientific understanding and expressed positive attitudes about learning science. However, in one classroom, a group of African American and Latina girls expressed outright disaffiliation with promoted meanings of “smart science person” (“They are the science people. We aren't like them”), despite the fact that most of them knew the science equally well or, in one case, better than, their classmates. To make sense of these findings, we examine the normative practice of “sharing scientific ideas” in each classroom, a comparison that provided a robust account of the differently accessible meanings of scientific knowledge, scientific investigation, and scientific person in each setting. The findings illustrate that research with equity aims demands attention to culture (everyday classroom practices that promote particular meanings of “science”) and normative identities (culturally produced meanings of “science person” and the accessibility of those meanings). The study: (1) encourages researchers to question taken‐for‐granted assumptions and complexities of RBS and (2) demonstrates to practitioners that enacting what might look like RBS and producing students who know and can do science are but pieces of what it takes to achieve equitable science education. © 2011 Wiley Periodicals, Inc., Inc. J Res Sci Teach 48: 459–485, 2011  相似文献   

9.
Despite a growing consensus regarding the value of inquiry-based learning (IBL) for students’ learning and engagement in the science classroom, the implementation of such practices continues to be a challenge. If science teachers are to use IBL to develop students’ inquiry practices and encourage them to think and act as scientists, a better understanding of factors that influence their attitudes towards scientific research and scientists’ practices is very much needed. Within this context there is a need to re-examine the science teachers’ views of scientists and the cultural factors that might have an impact on teachers’ views and pedagogical practices. A diverse group of Egyptian science teachers took part in a quantitative–qualitative study using a questionnaire and in-depth interviews to explore their views of scientists and scientific research, and to understand how they negotiated their views of scientists and scientific research in the classroom, and how these views informed their practices of using inquiry in the classroom. The findings highlighted how the teachers’ cultural beliefs and views of scientists and scientific research had constructed idiosyncratic pedagogical views and practices. The study suggested implications for further research and argued for teacher professional development based on partnerships with scientists.  相似文献   

10.
The science education literature demonstrates that scientific literacy is generally valued and acknowledged among educators as a desirable student learning outcome. However, what scientific literacy really means in terms of classroom practice and student learning is debatable due to the inherent complexity of the term and varying expectations of what it means for learning outcomes. To date the teacher voice has been noticeably absent from this debate even though the very nature of teacher expertise lies at the heart of the processes which shape students' scientific literacy. The research reported in this paper taps into the expertise of (participating) primary teachers by analyzing the insights and thinking that emerged as they attempted to unravel some of the pedagogical complexities associated with constructing an understanding of scientific literacy in their own classrooms. The research examines the processes and structures within one primary school that were created to provide conditions to allow teachers to explore and build on the range of ideas that presently inform the scientific literacy debate. The research reports these teachers' views and practices that shaped their actions in teaching for scientific literacy.  相似文献   

11.
Roberta Taylor 《Literacy》2012,46(3):156-166
Children's classroom talk and the connections between talk and text are current concerns for teachers. A deeper understanding of what child communication entails can ensure greater pedagogic support for the processes involved in text production. This article reports on a research project using multimodal discourse analysis to investigate child‐to‐child interaction in class. This research sought to uncover what multimodal analysis can reveal about the collaborative and creative meaning making, which children employ in spontaneous classroom discourse. Creativity here is understood in terms of everyday creativity in language. Instantiations of video‐recorded classroom communication between children have been closely analysed using a framework based on a functional view of interaction, specifically the work of the textual meta‐function. Attention to cohesive devices of intertextual referencing, idiom and metaphor as well as repetition and reference through a multimodal lens has revealed the ways in which all modes work in an integrated ensemble to make meaning. Examples in this article of the ways in which children ‘mess about’ with multimodal semiotic resources, employing them intertextually in metaphorical meaning making, have been taken from a Year 5 mixed primary geography lesson on the water cycle.  相似文献   

12.
13.
In the course of normal classroom lessons, 103 students (median 11.10 years) were asked to spend 15 min writing ‘anything you can think of’ about the number 50 on a blank page. The products were independently scored by 2 specialist art teachers and 2 specialist mathematics teachers on criteria relevant to their specialisations. Immediately before this task, however, half the students (depleted group) worked on difficult matching problems for 3 min, whereas controls worked on facile problems. Although volume of creative response appeared only marginally affected, depleted students were rated as lower on overall creativity (d?=?.8) by the arts teachers. The mathematics teachers also rated the depleted students as showing less quality in their work (d?=?.97). The depleted students cited fewer mathematical statements, but displayed more errors in statements they had written. The findings were interpreted in terms of ego depletion effects upon creativity.  相似文献   

14.
15.
The Biology Workbench (BW) is a web‐based tool enabling scientists to search a wide array of protein and nucleic acid sequence databases with integrated access to a variety of analysis and modeling tools. The present study examined the development of this scientific tool and its consequent adoption into the context of high school science teaching in the form of the Biology Student Workbench (BSW). Participants included scientists, programmers, science educators, and science teachers who played key roles along the pathway of the design and development of BW, and/or the adaptation and implementation of BSW in high school science classrooms. Participants also included four teachers who, with their students, continue to use BSW. Data sources included interviews, classroom observations, and relevant artifacts. Contrary to what often is advocated as a major benefit accruing from the integration of authentic scientific tools into precollege science teaching, classroom enactments of BSW lacked elements of inquiry and were teacher‐centered with prescribed convergent activities. Students mostly were preoccupied with following instructions and a focus on science content. The desired and actual realizations of BSW fell on two extremes that reflected the disparity between scientists' and educators' views on science, inquiry science teaching, and the related roles of technological tools. Research on large‐scale adoptions of technological tools into precollege science classrooms needs to expand beyond its current focus on teacher knowledge, skills, beliefs, and practices to examine the role of the scientists, researchers, and teacher educators who often are involved in such adoptions. © 2010 Wiley Periodicals, Inc. J Res Sci Teach 48: 37–70, 2011  相似文献   

16.
A systematic review of 210 educational research, policy and professional literature between 2005–2011 identified only 17 publications that met the inclusion criteria and contained findings relating to teachers' roles in promoting creativity, and 18 on how teachers can be supported for this. The evidence suggests that teacher skills, attitudes, willingness to act as role model, awareness of learners' need, flexible lesson structure, particular types of classroom interaction are important for teaching for creativity. Review highlighted importance of school culture in supporting or impeding creativity, need to elicit teachers' conceptions of creativity, teachers developing their own creativity;, working co-constructively with a mentor, and the importance of action research and reflection.  相似文献   

17.
To help explain the differences in students' performance on internationally administered science assessments, cross-national, video-based observational studies have been advocated, but none have yet been conducted at the elementary level for science. The USA and Germany are two countries with large formal education systems whose students underperform those from peers on internationally administered standardized science assessments. However, evidence from the 2011 Trends in International Mathematics and Science Exam assessment suggests fourth-grade students (9–10 year-olds) in the USA perform higher than those in Germany, despite more instructional time devoted to elementary science in Germany. The purpose of this study is to comparatively analyze fourth-grade classroom science in both countries to learn more about how teachers and students engage in scientific inquiry, particularly explanation-construction. Videorecordings of US and German science instruction (n 1?=?42, n 2?=?42) were sampled from existing datasets and analyzed both qualitatively and quantitatively. Despite German science lessons being, on average, twice as long as those in the USA, study findings highlight many similarities between elementary science in terms of scientific practices and features of scientific inquiry. However, they also illustrate crucial differences around the scientific practice of explanation-construction. While students in German classrooms were afforded more substantial opportunities to formulate evidence-based explanations, US classrooms were more strongly characterized by opportunities for students to actively compare and evaluate evidence-based explanations. These factors may begin to help account for observed differences in student achievement and merit further study grounded in international collaboration.  相似文献   

18.
In this study we explored how dramatic enactments of scientific phenomena and concepts mediate children's learning of scientific meanings along material, social, and representational dimensions. These drama activities were part of two integrated science‐literacy units, Matter and Forest, which we developed and implemented in six urban primary‐school (grades 1st–3rd) classrooms. We examine and discuss the possibilities and challenges that arise as children and teachers engaged in scientific knowing through such experiences. We use Halliday's (1978. Language as social semiotic: The social interpretation of language and meaning. Baltimore, MD: University Park Press) three metafunctions of communicative activity—ideational, interpersonal, and textual—to map out the place of the multimodal drama genre in elementary urban school science classrooms of young children. As the children talked, moved, gestured, and positioned themselves in space, they constructed and shared meanings with their peers and their teachers as they enacted their roles. Through their bodies they negotiated ambiguity and re‐articulated understandings, thus marking this embodied meaning making as a powerful way to engage with science. Furthermore, children's whole bodies became central, explicit tools used to accomplish the goal of representing this imaginary scientific world, as their teachers helped them differentiate it from the real world of the model they were enacting. Their bodies operated on multiple mediated levels: as material objects that moved through space, as social objects that negotiated classroom relationships and rules, and as metaphorical entities that stood for water molecules in different states of matter or for plants, animals, or non‐living entities in a forest food web. Children simultaneously negotiated meanings across all of these levels, and in doing so, acted out improvisational drama as they thought and talked science. © 2009 Wiley Periodicals, Inc. J Res Sci Teach 47: 302–325, 2010  相似文献   

19.
This article describes an exploratory case study of secondary school physics teachers' conceptions of scientific evidence. The nature of teachers' conceptions of evidence was derived from an analysis of data collected from 1 preservice and 2 in‐service teachers. Each teacher responded to a series of research prompts in multiple interviews and handwritten tasks. In these research prompts, the teachers thought aloud while designing experiments and critically evaluating student‐collected data as presented in hypothetical classroom scenarios. Spoken and written data were recorded. The data set was coded and analyzed using standard qualitative analysis techniques. Data from this study suggest that, while contemplating the reliability and validity of hypothetical student‐generated scientific evidence, the teachers frequently intertwined conceptions of evidence with subject matter concepts centrally relevant to the hypothetical investigation. Data also indicate that the relationship between subject matter knowledge and conceptions of evidence was more pronounced for some conceptions of evidence than for others. Results suggest that a fuller study is warranted. Suggestions for future research include exploring such relationships in other physics content areas as well as other scientific disciplines. Implications for science teacher education suggest that science and science methods courses should encourage preservice teachers to engage in original scientific research, as well as participate in peer review and critique. © 2003 Wiley Periodicals, Inc. J Res Sci Teach 40: 721–736, 2003  相似文献   

20.
Drawing on research that sought to explore the characteristics of ‘Possibility Thinking’ as central to creativity in young children's learning, this paper considers question‐posing and question‐responding as the driving features of ‘Possibility Thinking’ (PT). This qualitative study employed micro‐event analysis of peer and pupil–teacher interaction. Events were sampled from two early years settings in England, one a Reception classroom (4‐ to 5‐year olds) and the other a Year 2 classroom (6‐ to 7‐year olds). This article arises out of the second stage of an ongoing research programme (2004–2007) involving the children and practitioners in these settings. This phase considers the dimensions of question‐posing and the categories of question‐responding and their interrelationship within PT. Three dimensions of questioning were identified as characteristic of PT. These included: (i) question framing, reflecting the purpose inherent within questions for adults and children (including leading, service and follow‐through questions); (ii) question degree: manifestation of the degree of possibility inherent in children's questions (including possibility narrow, possibility moderate, possibility broad); (iii) question modality, manifestation of the modality inherent in children's questions (including verbal and non‐verbal forms). The fine‐grained data analysis offers insight into how children engage in PT to meet specific needs in responding to creative tasks and activities and reveals the crucial role that question‐posing and question‐responding play in creative learning. It also provides more detail about the nature of young children's thinking, made visible through question‐posing and responding in engaging playful contexts.  相似文献   

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