• Title/Summary/Keyword: 기본소양 강화형

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Analysis on the Recognition of the Engineering Education Participators for Practical Engineering Education - College of Science and Technology, Hongik University - (실무형 공학교육에 대한 공학교육 당사자들의 인식 조사 결과 분석 - 홍익대학교 과학기술대학을 중심으로 -)

  • Park, Jin-Won;Hwang, Kwang-Jin;Cho, Kyu-Nam;Baek, Hyun-Deok
    • Journal of Engineering Education Research
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    • v.10 no.1
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    • pp.20-33
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    • 2007
  • This paper is on the analysis of the survey results for the recognition of the practical engineering education among the engineering educators and educatees including alumni. After performing the survey, we classify 4 forms of practical engineering education, company-oriented, major-field-oriented, basic-engineering-knowledge-oriented and others. Also we survey what are necessary for the students to get employed. The survey results indicate that the respondents understand the practical engineering education as company-oriented and many of them also recognized basic-engineering-oriented engineering education. For the employment, the professors and the alumni focus on the personal character but the students feel that major field knowledge and the English ability are vital to the employment tests. Concerning the opinion for the students on the shortage of ability as an engineer, the professors respond the major field knowledge while the students and the alumni answer the English ability. This research produces some interesting results on the direction of practical engineering education, but needs more detailed and extended survey and analysis.

스마트 메카트로닉스 창조인력양성 사업단 - 창원대학교 지방대학 특성화 사업

  • Bae, Dong-Sik
    • Ceramist
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    • v.19 no.4
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    • pp.74-79
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    • 2016
  • 창원대학교 스마트융합 메카트로닉스 인력양성 사업단의 교육 목표는 1) 창조적 교육과정을 통한 지역거점 특성화, 2) 세계적인 수준의 경쟁력을 갖춘 기술 인력 양성, 3) 분석력, 창의력, 적응력 및 설계능력을 갖춘 능동적 기술인력 양성, 4) 시대의 환경변화를 선도하는 진취적 기술인력 양성, 5) 인재공급 및 취업률향상으로 정하였다. 이를 달성하기 위한 교육전략은 1) Major전문성(메카트로닉스심화, 공통실험교육 강화), 2) Global국제적감각(팀기반능력, 근접학문이해능력), 3) Creative지속성장 (Capstone Design, 현장적응교육)으로 정하였다. 따라서 메카트로닉스공통융합심화트랙 교육과정으로 기계, 전기전자제어, 신소재분야의 공통트랙으로 이론 30학점, 실험 6학점(16과목, 36학점)을 신설하여 운영하였다. 수강지도를 통한 교차이수권장 학생들의 자율선택기반을 조성하고, 현장적응교육, 캡스톤 디자인 2과목 7학점을 수강하도록 하였다. 학생의 본인주도 학습권을 인정하여 2학년 진학 시 학생본인직접 100% 자기 전공 선택 기회 제공하는 구조조정을 실하고, 타 전공 관련정보 상호교류, 학문간 통합교육, 조직의 유연성확보가 가능하도록 하였다. 교과목(정규/비정규)개편을 통해 개선된 현장 실무 형 내실화 교육의 실시하여 취업률을 향상시켰다. 따라서 창원대학교 신소재공학부는 기계, 전기전자에 관련된 기본소양을 의무적으로 학습하기 때문에 메카트로닉스 분야에서 필요한 신소재공학도를 육성하는 기반을 마련하였다.

The Study on the Perception Difference in the Engineering Education between Industrial Managers and Engineering Faculties and the Way to Resolve This Difference (공과대학 교육에 대한 교수와 기업담당자의 인식차이 및 해소방안 연구 - 경원대학교를 중심으로 -)

  • Yoo, In-Sang
    • Journal of Engineering Education Research
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    • v.13 no.6
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    • pp.49-56
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    • 2010
  • In this study, we investigated the perception difference of industrial managers and engineering faculties in the engineering education, and searched for a rational solution to resolve this perception differences. Both engineering faculties and industrial managers place strong emphasis on practical training, but they showed a significant difference in addressing the issues on the graduates of engineering education have. This different perceptions are occurred since the industrial managers prefer "the instant(or ready-made) human resource type", the ones to put to work right away whereas professors prefer the ones with the strong basic knowledge, "the potential human resource type", who may in the long run contribute to the development of the industry. We believe Finland Helsinki Engineering School's co-op course and Pennsylvania State University's Capstone Design Education are the good examples of nurturing "practical" human resource although both programs are conducted in very different imaginative ways.

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Korean High School Students' Understanding of the Concept of Correlation (우리나라 고등학생들의 상관관계 이해도 조사)

  • No, A Ra;Yoo, Yun Joo
    • Journal of Educational Research in Mathematics
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    • v.23 no.4
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    • pp.467-490
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    • 2013
  • Correlation is a basic statistical concept which is necessary for understanding the relationship between two variables when they change values. In the middle school curriculum of Korea, only informal definition of correlation is taught with two-way data representations such as scatter plots and contingency tables. In this study, we investigated Korean high school students' understanding of correlation using a test consisting of 35 items about interpretation of scatter plot, contingency table, and text in realistic situation. 216 students from a high school in Seoul took the test for 20 minutes. From the results, we could observe the following: First, students did not have right criteria for determining the strength of correlation presented in scatter plots. Most of students could determine if there is correlation/no correlation and if the correlation is positive/negative by seeing the data presented in scatter plots. However, they did not judge by the closeness to the regression line but rather judged by the closeness between data points. Second, when statements about comparing the strength of correlation in the context of real life situation were given in text, the students had difficulty in understanding the distribution-related characteristic of the bi-variate data. Students had difficulty in figuring out the local distribution characteristic of data, which cannot be guessed merely based on the expression 'The correlation is strong' without statistical knowledge of correlation. Third, a large number of students could not judge the association between two variabels using conditional proportions when qualitative data are given in 2-by-2 tables. They made judgement by the absolute cell count and when the marginal sum of two categories are different for explanatory variable they thought the association could not be determined. From these results, we concluded that educational measures are required in order to remove such misconceptions and to improve understanding of correlation. Considering that the current mathematics curriculum does not cover the concept of correlation, we need to improve the curriculum as well.

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