Relationship between perceived levels of classroom individualization and science-related attitudes

Relationships between perceived levels of classroom individualization and science-related attitudes were explored for a sample of 712 junior high school science students. Five dimensions of perceived individualization (personalization, participation, independence, investigation, and differentiation) were measured with the Individualized Classroom Environment Questionnaire (ICEQ), while seven distinct attitudes were measured with the Test of Science-Related Attitudes (TOSRA). Hierarchical regression analyses revealed that the set of individualization variables accounted for a significant increment in end-of-year attitude scores, beyond that attributable to corresponding beginning-of-year attitude scores, for four of the seven attitudes considered. Significant associations between an individual individualization variable and an attitudinal dimension were positive in all cases. The study also provided support for the reliability and validity of the ICEQ and TOSRA and for their general usefulness in science education research.     

Predicting high school student use of learning strategies: the role of preferred learning styles and classroom climate

This study investigated the predictiveness of preferred learning styles (competitive and cooperative) and classroom climate (teacher support and disciplinary climate) on learning strategy use in mathematics. The student survey part of the Programme for International Student Assessment 2003 comprising of 4633 US observations was used in a weighted ordinary least squares multiple regression framework to predict learning strategy from preferred learning styles and classroom climate while controlling for self-efficacy and demographic variables. The results showed that preferred learning styles were the most important predictors of learning strategies used in mathematics. Educational implications were discussed.     

Self-efficacy and classroom learning

This article discusses the role of perceived self-efficacy during classroom learning of cognitive skills. Self-efficacy refers to personal judgments of performance capabilities in a given domain of activity. Students enter classroom activities with various aptitudes and prior experiences, which affect their initial sense of self-efficacy for learning. During task engagement, students may assess self-efficacy by utilizing cues made cognitively salient by educational practices and which convey information about their capability to acquire knowledge and skills, such as performance outcomes, attributions, situational circumstances, outcome patterns, perceived model similarity, and persuader credibility. In turn, heightened learning self-efficacy enhances motivated learning, or motivation to acquire knowledge and skills. Research findings are presented showing how different educational practices affect self-efficacy. Future research needs to determine how students derive efficacy information from multiple cues, and to specify in finer detail how the cognitive processes involved in understanding instruction and appraising self-efficacy influence one another.     

The learning society as itself: lifelong learning,individualization of learning,and beyond education

This paper considers the bottom-up vision of the learning society. Unlike the top-down approach, the bottom-up approach does not start by specifying the purposes of learning which should direct the development of the learning society, but from observing interactions among learning individuals as agents. While in the relevant literature and policies much attention has been devoted to certain positions on how one's learning should respond to current change, this paper proposes that when considering the establishment and development of the learning society we should not dismiss the understanding of how individuals, concrete beings, act as they learn, since how they do so has an impact on the way in which learning is structured. This bottom-up approach has to be taken into account, for it helps us to come near to what is embedded in learning practices, and to react pertinently when we need to come to terms with substantive issues for the development of the learning society. Three aspects—lifelong learning, the individualization of learning, and learning beyond education—serve as the context for understanding what characterize the practices of the learning society.     

让研究性学习走进课堂

作为实施素质教育主阵地的课堂教学，研究如何渗透研究性学习的理念、方式方法尤为重要。本主要探讨怎样突破传统教学模式，改变教师教学方式，评估方式及营造开放的学习环境方面的问题。     

Monitoring constructivist classroom learning environments

The incorporation of constructivist and critical theory perspectives on the farming of the classroom learning environment led to the development of the Constructivist Learning Environment Survey (CLES). CLES enables researchers and teacher-researchers to monitor constructivist teaching approaches and to address key restraints to the development of constructivist classroom climates. CLES assesses either student or teacher perceptions of Personal Relevance, Uncertainty, Student Negotiation, Shared Control, and Critical Voice. The p plausibility of the CLES was established in small-scale classroom-based qualitative studies and its statistical integrity and robustness were validated in large-scale studies conducted in the USA and Australia.     

Interaction and learning in mathematics classroom situations

An analysis of one ten minute episode in which three seven year-old students engage in collaborative small group activity is presented to explore the relationship between individual learning and group development. Particular attention is given to the establishment of a taken-as-shared basis for mathematical activity and to the attainment of intersubjectivity. From a perspective which treats communication as a process of active interpretation and mutual adaptation, learning as it occurs in the course of social interaction is characterized as a circular, self-referential sequence of events rather than a linear cause-effect chain. In addition, the relationship between individual learning and group development is such that the students can be said to have participated in the establishment of the situations in which they learned.     

多模态自主听力学习课堂模式探讨

在网络迅猛发展的今天,语言学习的课堂模式也需要积极的与时俱进。当前,许多高校的英语专业都建立起了多模态网络自主学习平台,作为语言学习的重中之重,听力技能如何通过多模态的自学课堂来真正实现有效提高,如何科学合理的设计自主听力学习课堂的基本模式,成为摆在英语专业管理者和教师面前的一项重要课题,合理科学的多模态自主学习课堂是实现自主学习平台最大效果的唯一途径。     

Meaningful learning in the cooperative classroom

Meaningful learning is based on more than what teachers transmit; it promotes the construction of knowledge out of learners' experience, feelings and exchanges with other learners. This educational view is based on the constructivist approach to learning and the co-operative learning approach. Researchers and practitioners in various countries and settings seek ways to incorporate these approaches to create meaningful learning in the multicultural classroom and in the co-operative learning classroom. This article presents some of the ideas, studies and methods that signal a major shift of emphasis in education from product to process.     

Flipped classroom instruction for inclusive learning

The flipped classroom is a teaching methodology that has gained recognition in primary, secondary and higher education settings. The flipped classroom inverts traditional teaching methods, delivering lecture instruction outside class, and devoting class time to problem solving, with the teacher's role becoming that of a learning coach and facilitator. This methodology provides an avenue for more hands‐on and student‐driven learning during class time. The benefits of a flipped classroom include increased student motivation, differentiating instruction, self‐pacing lessons and mastery learning, increased collaboration and instant feedback for formative assessment. Although limited research has been conducted regarding students with learning difficulties in inclusive settings using a flipped learning model, initial research indicates flipping a classroom can be beneficial. Information is provided on inclusive practices from numerous countries that are beneficial to students with learning difficulties, as well as strategies and resources for individuals who may want to implement a flipped classroom.     

Understanding learning at the classroom level

Conclusions Our aim in taking the Year 7 class was to increase our understanding of the learning process. In simple terms we were trying to apply our ideas and White's analysis of the term ‘understanding’ further clarified our purpose. Each target of our understanding has been affected by our experience. Two examples can be used to show how this occurred. Our understanding of the learning approach has been modified by our understanding of students at this level. The effects of peer group interactions have been underestimated as a factor in the learning environment. As a further example we can see that some ways in which schools are organized are not conducive to the implementation of the learning approaches being presented. Schools are organized so that groups of age cohorts can function effectively. The result is that school classrooms are a compromise where competing functions of schooling and the constraints that are operating are ‘balanced’. The ideal conditions for our approach to learning could not be present and two visitors from the ‘ivory tower’ were grateful for the opportunity to better understand a secondary school and a group of its students.     

Mobile learning and the socio-materiality of classroom practices

The use of socio-material perspectives as a perspective for understanding new technologies in education has experienced a resurgence. At the same time, mobile learning as a concept is growing fast. This paper takes up the notion of mobile learning and classroom practices from a socio-material perspective, and looks at what socio-materiality has to offer for the understanding of mobile learning and classroom practices.     

The impact of mobile learning on students' learning behaviours and performance: Report from a large blended classroom

Chinese classrooms, whether on school grounds or online, have long suffered from a lack of interactivity. Many online classes simply provide recorded instructor lectures, which only reinforces the negative effects of passive nonparticipatory learning. At Shanghai Jiaotong University, researchers and developers actively seek technologic interventions that can greatly increase interactivity in large blended classes. They developed a cutting-edge mobile learning system that can deliver live broadcasts of real-time classroom teaching to students with mobile devices. Their system allows students to customise means of content-reception based on when and where they tune into the broadcast. The system also supports short text messaging and instant polls. Through these venues, students can ask questions and make suggestions in real time, and the instructor can address them immediately. This article describes this system in detail, and also reports results from a formal implementation of the system in a blended English classroom of 1000 students (with about 800 being online). As the data reveal, m-learning activities can much better engage students in the learning process. Students in this class changed from passive learners to truly engaged learners who are behaviourally, intellectually and emotionally involved in their learning tasks.     

Predicting learning from student interaction: Defining the interaction variables

The results of four recent studies of student interaction and learning are summarized and integrated to demonstrate (a) the power of specific student interaction variables and sequences of behavior in predicting achievement in small group settings, and (b) the uninterpretability of results based on general measures or isolated behaviors. Conflicting results from other studies are re‐interpreted in light of the importance of specific variables and sequences of behavior. The implications of these results for the measurement of student interaction are discussed.