• Journal of The Korean Association of Information Education
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• v.7 no.3
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• pp.363-371
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• 2003

Computer based industry is activated and IT education for student has developed quickly. Variety of related IT education has performed. Especially interest of Gifted of Information Science is increased, and programming education for Gifted of Information Science is carrying out in Office of Education and college. But most student are tired of learning tedious algorithm, language centered programming, and test focused learning. In this paper we offer opportunity to learn programming for students through implementing programming curriculum using Visual Basic more easily learning than other programming language, actually apply it in their homepage. and prepare ground of programming.

• Journal of Engineering Education Research
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• v.12 no.4
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• pp.56-62
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• 2009

The main aim of this study is to find out whether an elementary school's science-invention program for gifted pupils has an effect on their attitude towards science-engineering sector or related careers for their future. For hypothesis testing, a class for gifted pupils of 6th grade in D elementary school, J elementary school is chosen. The experiment was implemented 12 times during the period. Major findings were as follows. In career maturity, there weren't statistically meaningful differences found between experimental and controlled group as a result of invention program. This result showed that the invention program is not appropriate to promote the career maturity. However, there were still some evidence of change in their attitudes to science-engineering. Based on the result, an invention program which fails to improve career maturity should be amended.

• Journal of Korean Elementary Science Education
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• v.25 no.spc5
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• pp.485-494
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• 2007

The aims of this study were to investigate the differences of the proportion of misconceptions and the reasons for selecting responses related to questions about small living things between talented and average students. The study subjects were made up of three groups. They were a class of 37 talented elementary students in science attending J National University of Education, a class of 37 talented students in science attending J City Office of Education, and a class of 33 average students attending J City. A questionnaire was composed of 20 test questions for examination of concepts related to small living things. The data obtained in this study was analyzed using a statistical program. The major results were as follows: In general, the level of the scientific concepts possessed by the talented students was much higher than that of the average students, especially in question 14. The reasons for the misconceptions which were revealed through this study were classified into vagueness of the language used, hasty decision and deduction making, using the wrong analogical inference, mass communications (TV or internet) and experimental differences between individuals. In terms of the reasons for the selection of a given response, the talented students had also a higher frequency in the 'science books for children' category than the average students, indicating that various kinds of science books for children have an influence on the formation of concepts on small living things. The misconception proportion of male students was 5.4% higher than that of female students in mean frequencies of all questions, although the difference was not statistically significant except for question 4. Data from this study may help teachers involved in education for gifted students to reconsider their conceptions on small living things.

• Journal of Fisheries and Marine Sciences Education
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• v.27 no.3
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• pp.870-878
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• 2015

This study aimed to explore influences of parental science attitudes and trust perceived by children on their science self-efficacy. In oder to accomplish this purpose, a quantitative research was carried out for elementary gifted and general students using correlation and multiple linear regression analysis. The results were as follows. Firstly, children's science self-efficacy was positively correlated with parental science attitudes and trust perceived by both gifted and general children. Secondly, in the case of gifted children, their science self-efficacy was meaningfully affected by mother's trust, mother's science attitudes, and father's science attitudes perceived by them in that order. On the order hand, general children's science self-efficacy meaningfully affected by mother's trust and mother's science attitudes perceived by them.

• Journal of the Korean earth science society
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• v.40 no.6
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• pp.654-670
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• 2019

From the perspective of science gifted education, the successful intelligence theory is a means to understand how the gifted education curriculum reflects the characteristics of science gifted students. The purpose of this study is to investigate if the successful intelligence is fully reflected in the teaching materials of two gifted education centers (GECDOE: Gifted Education Center affiliated with District Office of Education, GSEIU: Gifted Science Education Institute attached to University). For this study, we selectively used 143 (GECDOE) and 134 questions (GSEIU) from the teaching materials of two gifted education centers. Those questions is analyzed through the semantic network analysis method. The results are as follow. First, the teaching materials of two gifted education centers are not evenly reflected in the successful intelligence, such as analytical ability, creative ability, and practical ability. Second, the teaching materials of two gifted education centers intensively demands analytical ability for students such as 'identify problem', 'represent and organize information', and 'additional prompts for analytical thinking'. Third, the teaching materials of two gifted education centers are presented to students without linking each frame of successful intelligence to one another. As the gifted students are quick to learn and show a preference for more complex thinking, it is necessary to develop teaching materials to experience the various abilities and promote integrated thinking according to the level of the gifted students. In this respect, this study is expected to be used as useful information for developing teaching materials to support customized education for gifted students.

• Journal of Korean Elementary Science Education
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• v.25 no.spc5
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• pp.476-484
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• 2007

The purpose of this study is to examine the misconception profiles of the scientifically-gifted and non-gifted children in terms of basic physics concepts and to compare them in terms of the types of differences in misconception as well as in their understanding of the concepts themselves. The subjects of this study were 75 scientifically-gifted children attending the Educational Center of Gifted Children in DNUE and 148 non-gifted children in elementary schools in Daegu city. For the purposes of this study, the basic concepts of physics (heat, electromagnetism, force, and light) which should be learned in an elementary school were selected with a review of related previous research and with an analysis of the 7th science curriculum. Next, a questionnaire was made which was made up of 20 multiple choice statement based items. Analysis of the results of the statement sections in the test, it was hoped, would reveal the difference between the scientifically-gifted and the non-gifted children's understanding, while the responses in the multiple choice items would suggest the differences between the two groups in terms of the misconceptions regarding physics concepts. The results of this study are as follows: First, although both the gifted and non-gifted children showed a low level of understanding of the concepts of heat, electromagnetism, force, and light, the gifted children' level of understanding of those physics concepts was proved to be significantly higher than the non-gifted, so it seems that the scientifically-gifted children have fundamentally understood the concepts in physics and have a higher level of understanding of them. Additionally, both the scientifically-gifted and non-gifted children' level of understanding of all the concepts was lower in the order of electromagnetism, heat, force, and light. This shows that both the scientifically-gifted and the non-gifted children have no difference in the level of understanding of any specific physics concept, but have similar levels of difficulty in every concept. Second, both the scientifically-gifted and non-gifted children showed similar types of misconceptions. However, the scientifically-gifted children had fewer misconceptions than the non-gifted. We suggest that scientifically-gifted children's misconceptions were not fixed yet, so there remained a possibility of them being corrected easily with appropriate instruction.

• Journal of Gifted/Talented Education
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• v.22 no.4
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• pp.967-983
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• 2012

The purpose of this study was to find the effects of the science camp program on Science Process Skills and Scientific Attitudes for the Scientific Gifted Students. For this purpose, this research developed the science camp program. This program was totally consisted 30 lessens. there was 2 part in this program. It contained Astronomic Space Science(14 class), Aerospace Science(16 class). To find the effects of the science camp program on Science Process Skills and Scientific Attitudes for the Scientific Gifted Students. 20 participants was selected. these students were attended at a scientific gifted class(5th grade) of an elementary school located in Ulsan. First, Science Process Skills was used to find the effect of the science camp program And the results were analyzed by SPSSWIN 18.0. The results of this study were as follows. the science camp program was a positive effects on Science Process Skills of the Scientific Gifted Students(t=8.649, p=.000). Second, the science camp program was a positive effects on Scientific Attitudes of the Scientific Gifted Students(t=3.431, p=.003). According to this research, the science camp program on Science Process Skills and Scientific Attitudes for the Scientific Gifted Students. It will be contribute on the curriculum construction of the gifted school or gifted class.

• Journal of Science Education
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• v.33 no.2
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• pp.290-303
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• 2009

The purpose of this study was to analyze communication, problem solving and self-directed learning of elementary and secondary scientific gifted students. In addition, this study investigated correlation on the subdomains of communication, problem solving and self-directed learning. The subjects of this study were 252 students(97 elementary students and 155 secondary students) who had been enrolled at Center for Science Gifted and Talented Education. Elementary and secondary scientific gifted students' self-directed learning skill was the highest score among core abilities. The result of analysis on self-directed learning subdomain presented the highest score in basic self control of elementary students. The secondary scientific gifted students showed the highest score in effort attribution to result. Subdomains of core capacity has very high correlation. This fact shows very high correlation among core abilities. The results of this study are suggesting that the systematical life skills education based on concrete factors is effective to improve communication, problem solving and self-directed learning of scientific gifted students.

• Journal of The Korean Association For Science Education
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• v.35 no.4
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• pp.537-548
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• 2015

This study aims to identify and compare the patterns of scientific questions generation among elementary science-gifted and general students when conducting observational tasks. The pattern in generating scientific questions, which is distinguished from other types of scientific questions, is the manner that students generate a variety of types of questions in an inquiry process. To analyze the patterns in generating scientific questions, the task of observing dry grapes in soda pop, candlelight, and dyed celery were selected as suitable tasks. The subjects were 26 science-gifted students participating in a gifted education program and 27 general students in an elementary school in the same city. They were all sixth graders. The results of this study are as follows: First, the patterns of scientific questions generation among gifted students and general students during observational tasks were classified into five patterns: [Pattern 1] single, [Pattern 2] sequential, [Pattern 3] repetitive, [Pattern 4] circulative, [Pattern 5] repetitive, and circulative. Second, gifted students and general students presented all of the five patterns, but the frequency of the patterns indicated differences between the two groups. The gifted students primarily presented [Pattern 3] and [Pattern 5]. On the other hand, the general students mainly presented [Pattern 1], [Pattern 2], and [Pattern 3]. These results suggest that the ways of generating scientific questions are very much as important as the types of questions. Teachers can establish teaching-learning strategies for generating scientific questions appropriate to learner's characteristics.

• Journal of The Korean Association of Information Education
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• v.25 no.6
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• pp.891-898
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• 2021

The purpose of this study is to analyze the curriculum of the University-affiliated Science Gifted Education Center from 2018 to 2020 to analyze the proportion of the information area in the total class and the contents of the class, thereby confirming the trend change in the information area. After analyzing the number of hours that information education occupies in the total number of class hours, information education was classified into three categories: computer use education, SW coding education, and SW convergence education, and the curriculum was analyzed in detail. The analysis results are summarized as follows. First, the proportion of information education in total education is gradually increasing compared to 2018. Second, the proportion of computer utilization education in information education is relatively decreasing, and SW coding education and SW convergence education are expanding. Considering that the field of information education has been expanded in various forms, more systematic information education will be provided to students in the future and its usefulness will increase rapidly.