英文摘要
|
The applied research on graphene is closely related to human life, and the use of popular scientific education was a strategy to promote the public understanding of the concept of graphene, its applied research, and its emerging industry as well as to establish positive perception towards it. Therefore, this study was aimed towards the following: 1) to understand the cognition and perception of the public towards participation in graphene-themed popular scientific activities; 2) to analyze the correlation between the cognition and perception of the public; 3) to compare the difference in the cognition and perception of the public with different genders and identity; and 4) to analyze the interaction between the factors of gender and identity towards public cognition and perception. The study was done in coordination with the Ministry of Science and Technology for the Technology-to-Tainan Festival. Promotional education was implemented from April to May 2015, in the Tainan Cultural & Creative Park, where the researcher-designed questionnaire was used to collect data from the public participating in activities. A total of 673 people were willing to fill in the questionnaire, among which 246 copies were valid. Gender and identity were regarded as independent variables and the public cognition and perception as dependent variables for the analysis of descriptive statistics, product-moment correlation, t-test, and F-test. The following conclusions were drawn: 1) After public participation in graphene-themed popular scientific activities, the performance on cognition reached above 60, with positive perception. 2) After public participation, the cognition presented significant correlation with the perception, and the performance on cognition revealed 3.7% predictive power on the participation perception. 3) Male participants displayed higher satisfaction and positive attitudes. Student participants with college status or above also showed higher positive perception, satisfaction, and behavioral intention towards graphene-themed popular scientific activities. 4) Public cognition and perception were not affected by two-factor interactions of gender and identity. Finally, there are some proposed recommendations for reference.
|
参考文献
|
-
黃幸美(1995)。數理與科學教育的性別差異之探討。婦女與兩性學刊,6,95-135。
連結:
-
Wansom, S., Mason, T.O., Drane, D.L., & Light, G. (2007). Recommended features for a NSE degree program: Common features identified from three studies. Retrieved Nov 4, 2010, from http://www.nclt.us/grg/30830.pdf
-
蔡雅芝(2012)。台灣奈米研究。取自[奈米科學網],https://nano.nchc.org.tw/
-
(2009).Science and Technology Yearbook.
-
彭子豪(2014 年10月01 日)。臺灣奈米科技展登場--產業推手點將錄。經濟日報,取自[聯合財經網],http://money.udn.com/storypage.php?sub_id=5640&art_id=397479
-
Allum, N.,Sturgis, P.,Tabourazi, D.,Brunton-Smith, I.(2008).Science knowledge and attitudes across cultures: A meta-analysis.Public Understanding of Science,17(1),35-54.
-
Berkeley, S.,Marshak, L.,Mastropieri, M. A.,Scruggs, T. E.(2011).Improving student comprehension of social studies text: A self-questioning strategy for inclusive middle school classes.Remedial and Special Education,32(2),105-113.
-
Bottge, B. A.,Rueda, E.,Grant, T. S.,Stephens, A. C.,LaRoque, P. T.(2010).Anchoring problem-solving and computation instruction in context-rich learning environments.Exceptional Children,76(4),417-437.
-
Cecil, N. L.,Pfeifer, J.(2011).The art of inquiry: Questioning strategies for K-6 classrooms.Manitoba, Canada:Portage & Main Press.
-
Dale, E.(1969).Audiovisual methods in teaching.New York, NY:Dryden Press.
-
Ernst, J. V.(2009).Nanotechnology education: Contemporary content and approaches.The Journal of Technology Studies,35(1),3-8.
-
Foley, E. T.,Hersam, M. C.(2006).Assessing the need for nanotechnology education reform in the United States.Nanotechnology Law & Business,3(4),467-484.
-
Fuchs, L. S.,Fuchs, D.(2002).Mathematical problem-solving profiles of students with mathematics disabilities with and without co morbid reading difficulties.Journal of Learning Disabilities,35,563-573.
-
Greenberg, A.(2009).Integrating nanoscience into the classroom: Perspectives on nanoscience education projects.ACS Nano,3(4),762-769.
-
Halpern, D. F.(2000).Sex differences in cognitive abilities.New York, NY:Psychology press.
-
Healy, N.(2009).Why nano education?.Journal of Nano Education,1(1),6-7.
-
Holley, S. E.(2009).Nano revolution - Big impact: How emerging nanotechnologies will change the future of education and industry in America (and more specifically in Oklahoma) an abbreviated account.Journal of Technology Studies,35(1),9-19.
-
Kelly, A. E.(Ed.),Lesh, R. A.(Ed.)(2000).Handbook of research design in mathematics and science education.Mahwah, NJ:Erlbaum.
-
Laffey, J. M.,Schmidt, C. M.,Galyen, K.(2013).Virtual gaming and learning environments as experience-tools for learning through problem solving.Learning, Problem Solving, and Mind Tools,UK:
-
Lave, J.,Smith, S.,Butler, M.(1988).Problem solving as an everyday practice.the teaching and assessing of mathematical problem solving,Reston, VA:
-
Mayer, R. E.(2004).Should there be a three-strike rule against pure discovery learning?.American Psychologist,59(1),14.
-
Meyyappan, M.(2004).Nanotechnology education and training.Journal of Materials Education,26(3-4),311-320.
-
Miller, D. I.,Halpern, D. F.(2014).The new science of cognitive sex differences.Trends in Cognitive Sciences,18(1),37-45.
-
Novoselov, K.,Geim, A. K.,Morozov, S.,Jiang, D.,Zhang, Y.,Dubonos, S.,Grigorieva, I.,Firsov, A.(2004).Electric field effect in atomically thin carbon films.Science,306,666-669.
-
Orgill, M.,Crippen, K. J.(2009).What's so big about being small?.The science Teacher,76(2),41-48..
-
Pan, W. F.,Tu, S. C.,Chien, M. Y.(2012).Feasibility analysis of improving on-campus learning paths via a depth sensor.Interactive Learning Environments,22(4),1-24.
-
吳宗明(2011)。國小階段應具有奈米科技核心概念。奈米國家型科技人才培育計畫之自由整合型計畫期中諮詢會議,臺北市:
-
施琮仁(2013)。科學傳播與在地特色:以奈米科技為例。人文與社會科學簡訊,14(4),51-59。
-
張巧芸、盧廷昌(2013)。石墨烯在發光二極體上的應用。電子月刊,19(11),90-99。
-
黃台珠(2011)。K-12奈米科技融入式教材概念圖。奈米國家型科技人才培育計畫之自由整合型計畫期中諮詢會議,臺北市:
-
黃愷俊(2012)。碩士論文(碩士論文)。臺中市,朝陽科技大學環境工程與管理系。
-
楊靜、辛懷梓、張自立(2011)。PODE教學策略對國小四年級學生學習奈米科技之成效。2011年中華民國物理教育學會年會成果集,臺北市:
-
楊龍立(1990)。博士論文(博士論文)。臺北市,國立臺灣師範大學教育研究所。
-
葉孟考(2011)。國小階段奈米科技概念。奈米國家型科技人才培育計畫之自由整合型計畫期中諮詢會議,臺北市:
-
潘文福(2013)。不同互動介面對小學生奈米學習動機差異之比較研究。GCCIL 2013 全球華人探究學習創新應用論文集,臺南市:
|