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題名:中學科學教師於專業合作情境成長社群發展跨領域奈米課程及教學之個案研究
作者:施昆易
作者(外文):Shih, Kun-Yi
校院名稱:國立彰化師範大學
系所名稱:科學教育研究所
指導教授:張惠博
王國華
學位類別:博士
出版日期:2019
主題關鍵詞:奈米科學教學教學觀點學科教學知識教學實務教師專業發展專家合作情境Nanoscience TeachingTeaching PerspectivePedagogical Content KnowledgeTeaching PracticeTeacher Professional developmentProfessional Cooperative Situation
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本研究旨在探討在專業合作情境中,中學科學教師發展跨領域奈米課程及教學的專業成長情形。基於奈米科技跨領域之特性,本研究採個案研究法,以立意取樣的方式,邀請3位不同學科背景中學科學資深教師擔任個案教師,並與3位大學奈米學科專家及2位科教學者,組成專業合作小組,透過專業對話、課程發展、同儕回饋及教學實務,建立專業合作之情境,並在準備、教學設計、實作與觀摩、精煉等四個階段的專業成長架構下,我們探討了個案教師在研究期間的奈米教學觀,學科教學知識和教學實務的改變。研究者透過晤談、會議討論錄音、課室觀察、以及相關文件資料的蒐集,並將這些質性資料編碼、詮釋、分析及三角校正,以瞭解個案教師之轉變。
研究結果發現:(一)在奈米科學教學觀點方面,個案老師參與社群初期與到後期,對「奈米學科本質觀點」、「奈米學科教學觀點」及「奈米學科學習觀點」奈都有一些改變:從奈米科學獨立於傳統科學觀點,轉變為奈米科學可以和傳統科學概念結合;奈米的教與學則由傳遞奈米科學知識及驗證知識,轉向以引導學生思考與探究為主。(二)個案教師在參與社群後,他們的PCK及教學實務也有某些轉變:課程目標從只讓學生看見奈米的現象,轉變到現象觀察、探究歷程,及概念理解之多面向;教學策略則由講述及食譜式實驗,轉變為使用不同的表徵方式及教學模式,並進行探究式實驗設計;對學生學習困難更加理解,除奈米微粒無法觀看外,學生先備概念不足亦是學習困難的主因;因此,他們更有可能使用多種評估策略來促進學生的理解。另一方面,在教學實務的轉變上,三位個案老師在參與社群初期,教學主要以知識的傳遞與驗證為主,而在後期,教學流程不再是講述及食譜式實驗,教學流程則彈性調整,並使用不同的教學策略,以幫助學生獲得學習,此外,課堂也有較多的互動,實驗更具有開放的實驗效果。(三)來自不同科學背景的三名個案教師在參與成長社群後,在奈米科學教學觀點,PCK和教學實踐方面表現出一些異同;從奈米科學教學觀點,三個案例教師在參與社區的早期和晚期階段有更多的相似之處。 然而,在PCK的課程知識和教學策略知識方面,個案教師從傳統方向轉向建構取向。惟,學習者的知識和評量知識較少改變。最後,本研究也提出建議,以供未來奈米教學研究和教師教育的參考。
The purpose of this study was to investigate professional growth of high school science teachers during they developed nano-science curriculum and instruction through professional collaborative situation. Based on interdisciplinary feature of nano-science, a case study method and purposeful sampling method was adopted in this study. Three senior high school science teachers with different science background were invited to participate in this study as case teachers. In addition, three nano scientists and two science educators were also invited to join in a group of collaborative professional development community to help the case teachers develop nano curriculum and instruction. The study established a professional collaborative situation through professional dialogue, curriculum development, peer feedback, and practices, and under the four stages of professional growth, such as preparation, instructional design, implementation, and refining, etc., we explored the case teachers’ changes in their views of teaching, pedagogical content knowledge, and practice of teaching on nano-science during study period. Data collection included interviews, classroom observations, online conferences, and related documents. Data analysis through coding, interpretation, analysis, and triangulation of these qualitative materials to understand the case teachers’ changes.
The results of the study found that: (1) there were some changes in the case teachers’ views on nature of nano-science, instruction and student learning of nano-science after they joined the group of collaborative professional development community. The main views shift was from nano-science independent to traditional science, to nano-science can be linked with traditional scientific concepts. The teaching and learning of nano-science was changed from the transmission and verification of nano-science, to lead students to think and explore. (2) After participating in the community, their PCK and teaching practice also had some changes: their course objectives were changed from observation of the nano phenomenon, to the phenomenon observation, the inquiry process, and the concept understanding; their teaching strategies were also shift from lecturing and recipe-based experiments to use multiple representations, and inquiry-based experimental design; their understanding of students' learning difficulties were more, besides invisible of nano-particles, the lack of prior knowledge was also the main cause of students’ learning difficulties. As a result, they were more likely to use the multiple assessment strategies to promote students' understanding. On the other hand, the teaching practices of the three case teachers were mainly based on the transmission and verification of knowledge, however, they changed the teaching process into using more flexible, more effective teaching strategies, and more interactions to help students gain learning. (3) Three case teachers with different science background showed some similarities and differences in the teaching perspectives, PCK, and teaching practices of nanoscience after participating in the community; in views of teaching about nano-science, three case teachers have more similarities in the early and late stages of participating in the community. However, in terms of curriculum knowledge and teaching strategy knowledge, the case teachers are shifted from the traditional orientation to the constructivist orientation. Learner knowledge and assessment knowledge are less changed. Finally, this study also provide suggestions for teaching, research, and teacher education on nono-science.
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