Your search found 8676 results.

Descriptors:
Literacy Education; English (Second Language); Second Language Learning; English Language Learners; Classrooms; Elementary School Science; Science Curriculum; Literacy; Science Education; Science Instruction; Grade 2; Grade 3; Elementary School Students; Instructional Materials; Teaching Methods; Scientific Concepts

Abstract:
Although literacy plays a large role in elementary science classrooms, one thing that offers a challenge for educators is meeting the linguistic needs of English language learners (ELLs) while also meeting their content needs. An additional challenge is ensuring that academic literacy extends beyond the classroom. This article presents ways of extending classroom literacy into the home. The suggestions and activities emphasize literacy strategies appropriate for ELLs as well as English-speaking students. (Contains 4 figures and 9 resources.) Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Social Justice; Evidence; Stakeholders; Science Teachers; Science Curriculum; Indigenous Knowledge; African Languages; Students; Cultural Awareness; Teacher Attitudes; Student Attitudes; Questionnaires; Attitude Measures; Interviews; Culturally Relevant Education; Science Instruction; Foreign Countries

Abstract:
This study investigated a sample of isiXhosa mother tongue-speaking science teachers', their pupils', and adult local community members' awareness of Xhosa indigenous knowledge. It also investigated what aspects of this knowledge they value and think should and could be integrated into the school science curriculum and their reasons for suggesting that it should (or should not) be incorporated. The participating teachers voluntarily completed an open-ended questionnaire. On completion, they were given the task of administering the questionnaire to at least 1 of their pupils and 1 community member who they believed could contribute ideas about indigenous knowledge that might relate to science education. Interviews were held with a small sample of teachers and community members. The data generated suggest that there is a shared awareness of indigenous knowledge across the respondents (teachers, pupils, and community members). The reasons given for including indigenous knowledge in the school curriculum related mainly to the realm of recognition (social justice and cultural sensitivity), and there was also little evidence that the respondents were aware of current understandings underpinning the demarcation of science and indigenous knowledge as disciplines. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Science Instruction; High Schools; Secondary School Science; Urban Schools; Cultural Centers; Science Curriculum; Student Attitudes; Environmental Education; Biology; Interviews; Scientific Concepts; Affective Behavior; Natural Resources; Geographic Location; Cultural Awareness

Abstract:
This study investigates how students' participation in a place-based science curriculum may influence their place attachment (dependence and identity). Participants attend an urban high school in Hawai'i and are members of different cultural institutions within the school. Students are either enrolled in an environmental science class within the Hawaiian Academy or in a general biology, non-academy affiliated science class. Interview transcripts, field notes, and student documents suggest place-based science had different impacts on student place attachment depending on cultural affiliation within the school. Namely, students in the Hawaiian Academy show greater depth of understanding of science concepts and content, while non-Hawaiian Academy students show interest in the affective aspects of the class. Members from both groups show an increase in the incorporation of the natural environment as an aspect of their place attachments. Results suggest a need for learning opportunities that promote cultures, identities, and literacies not typically recognized in school for all students. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Indigenous Populations; Elementary School Science; Foreign Countries; Socialization; Comparative Analysis; Elementary School Students; Science Curriculum; Hidden Curriculum; Science Instruction; Underachievement; Science Achievement; Cultural Influences; Teaching Methods

Abstract:
The tacit messages transmitted to indigenous learners in the science classroom provide a lens through which indigenous disengagement with school science can be better understood. In this paper, the findings of a cross-national comparative study conducted with indigenous Maori students in New Zealand and Seediq/Atayal students in Taiwan are discussed from a sociological perspective. The purposes of the present study were to explore the ways in which indigenous elementary school students in two industrialized nations experience the science curriculum and to identify the socialization processes through which patterns of indigenous under-achievement in science are maintained and reproduced. The findings suggest that the peripheral positioning of indigenous culture and knowledge within the science curriculum in developed nations underpins a series of tacit pedagogical codes that contribute to indigenous student disengagement with the subject. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Sciences; Museums; Foreign Countries; Science Instruction; Toys; Science Education; Science Curriculum; Hands on Science; Buddhism; Scientific and Technical Information

Abstract:
This article focuses on some of the intersections of two worldviews: Western modern science and a Buddhism-based way of life in Thailand. It enters the debate on the place and practice of Indigenous forms of knowledge and the clashes with formal science education curricula. Our goal is "balanced bi-gnosis": the possession of, and proficiency in, two distinct knowledge systems, rejecting syncretic forms or integration of these knowledge systems. The examples discussed are drawn from Thailand's National Science Museum and, in particular, from the museum's work in the traditional Thai technology gallery using visitors' hands-on activities with toys. (Contains 8 figures.) Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Student Attitudes; Secondary School Students; Elective Courses; Measures (Individuals); Foreign Countries; Opinions; Musical Instruments; Constructivism (Learning); Science Curriculum; Core Curriculum; Nonmajors; Interdisciplinary Approach; Music Education; Acoustics; Instructional Development; Questionnaires; Attitude Measures; Scientific Attitudes; Pretests Posttests

Abstract:
This study is aimed to develop the interdisciplinary SoSTI (science of sound in traditional Thai musical instruments) course for Thai non-science upper secondary school students to study the students' attitudes toward science before and after studying from the course. The SoSTI course development is based on the interdisciplinary concept model and constructivist theory. The research study is divided into five phases: (1) pre-developing the course, (2) developing the course, (3) conducting the pilot study, (4) implementing and evaluating, and (5) analyzing data and writing the conclusion, respectively. The SoSTI course is an elective course corresponding to the Basic Education Core Curriculum B.E. 2551 (A.D. 2008). This course was conducted with 35 12th-grade non-science students in the second semester of the 2010 academic year at a school in Bangkok, Thailand, for a whole semester. The research instruments were students' attitude toward science questionnaire, and students' opinions toward the SoSTI course questionnaire. The results of this study presented that, after completing the SoSTI course, the students' attitudes toward science comparing before and after studying the SoSTI course were not significantly different at the 0.05 level. However, they have positive opinions toward the course. [This work was financially supported by the Institute for Promotion of Teaching Science and Technology (IPST), Bangkok, Thailand.] (Contains 3 tables and 2 figures.) Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

 ERIC Full Text (178K) |  More Info:
Help Find in a Library

Descriptors:
Majors (Students); Genetics; War; Science Curriculum; Secondary School Science; College Science; Scientific Concepts; Teaching Methods; High Schools; History; Molecular Structure

Abstract:
This paper addresses the teaching of advanced high school courses or undergraduate courses for non-biology majors about genetics or history of genetics. It will probably be difficult to take the approach described here in a high school science course, although the general approach could help improve such courses. It would be ideal for a college course in history of genetics or a course designed to teach non-science majors how science works or the rudiments of the genetics in a way that will help them as citizens. The approach aims to teach the processes of discovery, correction, and validation by utilizing illustrative episodes from the history of genetics. The episodes are treated in way that should foster understanding of basic questions about genes, the sorts of techniques used to answer questions about the constitution and structure of genes, how they function, and what they determine, and some of the major biological disagreements that arose in dealing with these questions. The material covered here could be connected to social and political issues raised by genetics, but these connections are not surveyed here. As it is, to cover this much territory, the article is limited to four major episodes from Mendel's paper to the beginning of World War II. A sequel will deal with the molecularization of genetics and with molecular gene concepts through the Human Genome Project. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Science Education; Science Curriculum; Evaluation; Curriculum Development; Science Instruction; Secondary School Students; Interviews; Questionnaires; Problem Solving; Critical Thinking

Abstract:
Living in an unpredictable and ever changing society demands from its' citizens the development of complex competencies that challenges school, education and curriculum. PARSEL, a pan-European Project related to science education, emerges as a contribution to curricular development as it proposes a set of teaching-learning materials (modules) in order to make science classes more popular and relevant in the eyes of the students and as such to increase their interest with school science. The goal of this study was to understand how students evaluate those innovative modules. This paper presents data concerning 134 secondary students, collected through interviews, questionnaires and written documents. A quantitative analysis of the data collected through questionnaires was complemented by a qualitative analysis of the data collected by interviews and written documents. Results show that understanding the relationship between science and daily life, participating in practical activities based on problem solving and developing critical thinking and reasoning were the issues most valued by students. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Difficulty Level; Cognitive Processes; Academic Support Services; Discovery Learning; Ecology; Data Interpretation; Grade 8; Computer Simulation; Intervention; Self Control; Science Instruction; Science Education; Science Curriculum; Outcomes of Education

Abstract:
The study examined the effects of two different instructional interventions as support for scientific discovery learning using computer simulations. In two well-known categories of difficulty, data interpretation and self-regulation, instructional interventions for learning with computer simulations on the topic "ecosystem water" were developed and tested using a sample of 124 eighth graders in science classes. The results demonstrate the effectiveness of instructional support for domain-specific factual, conceptual, and procedural knowledge acquisition. Students who received either only instructional support for data interpretation or only for self-regulation achieved the highest learning outcomes. However, a combination of instructional support for data interpretation and self-regulation seemed detrimental for knowledge acquisition. Students who received instructional interventions for both data interpretation and self-regulation also showed the highest values of perceived cognitive load. High cognitive load could be a reason for why a combination of particular instructional interventions does not lead to the expected positive learning outcomes. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website

Descriptors:
Teacher Effectiveness; Student Attitudes; Teaching Experience; Secondary Schools; Science Teachers; Classrooms; Secondary School Science; Foreign Countries; Science Curriculum; Surveys; Scores; Predictor Variables; Regression (Statistics); Statistical Significance; Teacher Qualifications

Abstract:
This study investigated the self-reported instructional assessment practices of a selected sample of secondary school science teachers in Barbados. The study sought to determine if there were statistically significant differences in the instructional assessment practices of teachers based on their sex and teacher quality (teaching experience, professional qualification and teacher academic qualification). It also sought to determine the extent to which each of these four selected variables individually and jointly affected the teachers' report of their instructional assessment practices. A sample of 55 science teachers from nine secondary schools in Barbados was randomly selected to participate in this study. Data was collected by means of a survey and was analyzed using the means and standard deviations of the instructional assessment practices scores and linear, multiple and binary logistic regression. The results of the study were such that the majority of the sample reported good overall instructional assessment practices while only a few participants reported moderate assessment practices. The instructional assessment practices in the area of student knowledge were mostly moderate as indicated by the sample. There were no statistically significant differences between or among the mean scores of the teachers' reported instructional assessment practices based on sex (t = 0.10; df = 53; p = 0.992), teaching experience (F[4,50] = 1.766; p = 0.150), the level of professional qualification (F[3,45] = 0.2117; p = 0.111) or the level of academic qualification (F[2,52] = 0.504; p = 0.607). The independent variables (teacher sex, teaching experience, teacher professional qualification or teacher academic qualification) were not significant predictors of the instructional assessment practices scores. However, teacher sex was a significant predictor of the teachers' report of good instructional assessment practices. The study also found that the joint effect of the variables teacher sex, teaching experience, teacher professional qualification and teacher academic qualification was not significant in predicting the instructional assessment practices scores of the science teachers. However, the joint effect of these variables was statistically significant (X[superscript 2] = 18.482; df = 10; p = 0.047) in predicting the teachers' reported use of good instructional assessment practices. The best predictor of teachers' report of good instructional assessment practices, though not statistically significant, was the diploma in education professional qualification. Note:The following two links are not-applicable for text-based browsers or screen-reading software. Show Hide Full Abstract

Related Items: Show Related Items

Full-Text Availability Options:

More Info:
Help | Tutorial Help Finding Full Text |  More Info:
Help Find in a Library |  Publisher's website