物理探究课有效教学评价指标体系构建研究
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摘要
自《全日制义务教育物理课程标准(实验稿)》将科学探究作为课程内容与教学方式引入物理课程以来,科学探究逐渐成为众多物理教师课堂教学实践中的一个重要组成部分。然而,部分教师对科学探究所持有的认识误区和实践误区又严重影响了探究教学的有效性,导致探究教学在学校教学实践中遭遇阻力。因此,如果能有可靠、有效的物理探究课教学评价模型,将可在评价探究课教学有效性的同时,发挥其诊断功能,促进中学物理教师对探究课内涵及其有效教学特征的把握,从而实现探究课在学生生成知识、发展实践能力、培养创新精神,凸显学生主体生命价值和意义上的作用。然而,当前已有的课程改革背景下的物理课堂有效教学评价模型并未从把握物理探究课的价值定位、反映探究课特质、统筹“探究性”和“教学有效性”两个基本构念入手建立相关指标或标准,不具有针对物理探究课教学有效性进行评价的功能。
     由此,如何突破探究教学实践中的困难与瓶颈,纳入物理教育研究者的观点,并考虑一线教师、学生的看法,建构一个可靠、有效的物理探究课有效教学评价指标体系是本研究的核心问题。围绕这一核心问题,派生出以下一些具体问题:
     (1)已有的科学探究教学评价研究、课堂教学观察方案研究及探究教学理论与实践研究文献对本指标体系构建提供了哪些经验?
     (2)如何通过专家咨询法建构物理探究课有效教学评价指标?
     (3)如何通过中学物理教师及中学生的问卷调查检验中学师生对探究课有效教学评价指标的必要度观点并分析不同背景变量中学师生指标必要度的观点差异?
     (4)如何构建物理探究课有效教学评价指标体系的权重体系?
     (5)物理探究课有效教学评价指标体系在实施中的信度和效度如何?如何发挥其探究课教学质量评价中的诊断功能?
     本研究采取了量化研究为主,质性研究为辅的技术路线。所应用的研究方法主要有:文献法、观察法和调查法,调查法包括专家咨询法和问卷调查法。
     本论文主要包括五部分研究内容:
     研究一:在系统考察国内外探究教学评价研究以及美国科学和数学课堂观察方案研究的基础上,思考探究课教学质量评价中的“探究性”与“教学有效性”、“教师”与“学生”以及“活动性”与“思维性”三对关系,厘清物理探究课教学的价值定位,探寻评价标准设计的可操作化策略,完成物理探究课有效教学评价指标体系的初步构想和内涵分析。
     研究二:基于专家咨询法构建物理探究课有效教学评价指标体系。建立由高等院校物理教育理论研究者与中学教研员、物理教师两大类人员组成的专家咨询小组,经两轮专家意见咨询,对初构指标及评价标准必要度进行检验、修订,建立了具有专家效度的物理探究课有效教学评价指标体系。
     研究三:基于中学师生观点的物理探究课有效教学评价指标体系构建。把依据专家咨询建构完成的“物理探究课有效教学评价指标体系”改编成“中学师生对物理探究课评价指标重要性观点的调查问卷”,通过问卷调查了解中学师生的指标必要度观点,分析不同背景变量中学师生指标必要度观点差异,通过调查数据对物理探究课有效教学评价指标体系做内部一致性信度检验和内容效度分析。
     研究四:物理探究课有效教学评价指标体系的指标权重构建。采用对数加权法建立物理探究课有效教学评价指标体系的权重体系。
     研究五:物理探究课有效教学评价指标体系的实施探索。为检验物理探究课有效教学评价指标体系在实际应用中的可靠性和有效性,依据独立观察者课堂探究教学实录测评结果,做指标体系评分者信度和构念效度分析。并应用该指标体系做一节浮力探究课的诊断日志。经以上五部分研究,建构完成物理探究课有效教学评价指标体系。
     本研究的主要结论:
     (1)物理探究课有效教学评价指标体系由三级指标、三十三条评价标准构成。从探究活动设计与实施、课堂文化、内容和教学效果4个维度建构一级指标;从问题、证据、解释、发表、学习情境、师生关系、内容选择、内容意义和目标达成9个维度建构二级指标;从探究问题适切性、实验器材及安全性、实验设计数据收集、评价证据、形成假设、进行推理、交流和论证、严谨尊重、合作、支持、倾听、适度、准确阐释、合理建构、联系、知识理解、过程和情感19个维度建构三级指标。
     (2)物理探究课有效教学评价指标体系各级指标均具有必要度但重要程度不同。专家、中学物理教师及中学生三类人群认同上述指标对物理探究课教学质量评价的必要性。但专家也认为,各一级指标按其对探究课教学质量所起影响作用由大到小依次为探究活动设计与实施、内容、教学效果、课堂文化。
     (3)物理探究课有效教学评价指标体系具有良好的内部一致性信度和内容效度。综合师生问卷调查信度评估结果表明,物理探究课有效教学评价指标体系具有良好的内部一致性信度。综合师生问卷调查内容效度评估结果表明,探究活动设计与实施、课堂文化、内容以及教学效果四个量表均具有良好的内容效度。
     (4)普通中学与省级重点中学物理教师、高中物理教师对指标必要性认同度更高。总体而言,相比县和地市级重点中学物理教师、初中物理教师,前述类型的物理教师对指标必要性有更高认同。
     (5)不同背景变量中学生指标必要度观点存在差异。总体而言,相比地级市中学生,省会或直辖市中学生对指标必要性认同度更高;相比地市级重点中学学生,普通中学和省级重点中学学生对“课堂文化”指标必要性有更高认同,但在“探究活动设计与实施”指标上则恰好相反;与初中生相比,高中生对指标必要性认同度更高。
     (6)物理探究课有效教学评价指标体系在实践应用中具有良好的评分者信度、构念效度并可发挥其诊断功能。应用物理探究课有效教学评价指标体系所做探究课教学实录测评表明,不同评价者对探究课教学质量地评价具有良好的一致性,且“探究性”和“教学有效性”是指标体系结构的一个强有力的整合力量。同时,以“观察笔记”“个人笔记”和“诊断笔记”为框架组织的教学诊断,可发挥该指标体系在改进教师探究教学实践上的作用。
     依据研究发现和结论,本研究对物理探究课有效教学评价指标体系的应用、物理教师提高探究课教学质量的途径以及对后续研究的展望等进行了一些讨论。
     本研究通过对物理探究课有效教学评价内涵、目标与指标体系的探索,有效整合了理论思考和实证研究,对深刻理解物理探究课的价值定位及其教学特征有重要意义。同时,物理探究课有效教学评价指标体系在具体学校情境中的应用,对促进教师专业成长、改进探究课教学实践和学生学业进步具有现实意义。
Since scientific inquiry had been introduced into physics curriculum as course content and teaching method by Physics Curriculum Standard of Full-time Compulsory Education(Experiment draft),it has become an important part of many physics teachers' classroom practice increasingly. However, the effection of inquiry teaching has largely been disturbed by the cognitive and practical misunderstandings hold by some teachers, which made inquiry teaching face some resistance in school's teaching practice. Therefore, on condition that reliable and effective evaluation model of physics inquiry teaching can be acquired, it would useful to evaluate the effectiveness of physics inquiry teaching, in the meaning time, play its diagnostic function. Which would promote physics teacher's understanding of the connotation of physics inquiry lesson and the features of effective inquiry teaching, then the function of inquiry lesson on student's concept understanding, development of pratical ability, cultivation of creative spirit, highlighting student's value of life would come true. However, the current curriculum reform-based evaluation model on physics teaching can not grasp the value orientation of physics inquiry lesson, reflect the speciality of inquiry teaching and balance two fundamental principle:"inquiry-orientation" and "effective teaching", thus make it impossible to use these evaluation model to assess the effectivess of physics inquiry teaching.
     The key problem of this study is how to construct a reliable and valid evaluation indicator system for effective inquiry teaching of physics lesson. To achieve this aim, the difficulties faced by inquiry teaching practice, the opinions of physics education researchers, as well as the viewpoints of middle school's physics teachers and their students must be considered. Based on this key problem, there are a number of specific questions:
     (1)What experiences can be absorbed by current studies on inquiry teaching evaluation, classroom observation protocol as well as the instructional theory and practice of inquiry?
     (2)How can Delphi method be used to construct the evaluation indicator system for effective inquiry teaching of physics lesson?
     (3)How can questionnaire survey be used to investigate middle school physics teachers and their students'viewpoints on the necessity of the evaluation indicator for effective inquiry teaching of physics lesson? Meanwhile, the differences of their opinions on the necessity of the evalution indicator hold by middle school physics teachers and their students with different demographic features would be analysed.
     (4)How can the weight system of the evaluation indicator system be constructed?
     (5)What is the reliability and validity of this evaluation indicator system be used to evaluate the quality of inquiry teaching of physics lesson? How can its diagnostic function be expressed in the process of teaching quality evaluation of inquiry lesson?
     The technical route of this study is quantitative research primarily and supplemented by qualitative research. The major research methods used in this study include literature method, observational method and survey method. The survey method include Delpi method and questionnaire method.
     This dissertation is mainly divided into five parts:
     The first part of this study investigates the current research on inquiry teaching evaluation at home and abord, as well as American science and mathsmatics classroom observation protocol, deliberates three relationships in inquiry lessons's evalution, namely the relationship between "inquiry" and "teaching effectiveness", the relationship between "teacher" and "student", the relationship between "activity" and "thinking", clarifies the value orientation of physics inquiry lesson and explores the operationalization strategies of designing evaluation criterion. Thus, the original evaluation indicator system for effective inquiry teaching of physics lesson, as well as its connotation analysis, are completed in this part.
     This second part of this study employs the Delphi method to construct evaluation indicator system for effective inquiry teaching of physics lesson. The expert consultation group was constituted by two kinds of expert, researchers of physics educational theory in universities and physics teachers working in middle school.The necessity of original indicator and evaluation criterion were examined and revised by two-round consultation of experts'opinion, thus established the expert validity of the evaluation indicator system.
     The third part of this study revised the evaluation indicator system for effective inquiry teaching of physics lesson based on the surveys of physics teacher and middle school students. The evaluation indicator system established in above step was adapted to student and teacher's questionnaire. Their opions on the necessity of indicator and criterion were investigated by questionaire. Based on the survey data, the understanding differences on the necessity of the evaluation indicator exists in teacher/student with different demographic features were analysed. The reliability and content validity of evaluation indicator system also be discussed in this part.
     The fourth part of this study establishes weight system of the evaluation indicator system by using logarithmic weighting method.
     The fifth part of this study put the evaluation indicator system for effective inquiry teaching of physics lesson into practice. The purpose of this working is to examine the reliability and validity of the evaluation indicator system in real applications. According to the data came from two independent observers who scored the picture recording of physics inquiry lessons with the evaluation indicator system, the scorer reliability and construct validity of this evaluation indicator system were examined. Meanwhile, by using this evaluation indicator system, a diagnostic Log of an inquiry lesson on buoyancy was completed. Based on the above research, the evaluation indicator system for effective inquiry teaching of physics lesson was constructed.
     This study has following major conclusions:
     (1)The evaluation indicator system for effective inquiry teaching of physics lesson contains three-level indicator and33evaluation criteria. The primary indicators are built up through design and implementation of inquiry activity, classroom culture, content and teaching effect. The secondary indicators are established through question, evidence, explaination, report, learning situation, relations between students and teachers, content selection, content meaning and goal attainment. The tertiary indicators are built up through applicableness of scientific questions, experimental equipment and safety, experimental design, data collection, evidence assessment, hypothesis formation, making inference, communication and demonstration, rigorous and respect, cooperation, support, listening, moderation, accurate interpretation, reasonable construct, connection, knowledge understanding, process and emotion.
     (2)A11levels of indicators have necessity but differ in their importance. The expert, physics teacher and middle school student highly acknowledge the necessity of all levels of indicators to evaluate the quality of inquiry lesson without exception. According to experts'opinion, when it comes to evaluate the inquiry teaching in physics classroom, the degree and impact of each indicator are different. As far as the primary indicators are considered, design and implementation of inquiry activity is the most important, content is the second one, teaching effect is the third one and classroom culture is the last one.
     (3)The evaluation indicator system for effective inquiry teaching of physics lesson is good at its internal consistency reliablity and content validity. Based on the results of teacher and student's questionnaire survey, the evaluation indicator system has good internal consistency reliablity. According to content validity assessment, all scales, namely design and implementation of inquiry activity scale, classroom culture scale, content scale and teaching effect scale achieve good content validity.
     (4)Physics teacher who works in ordinary secondary school and key middle school at provincial level, as well as high school's physics teacher grade higher on the necessity of indicators. In general, compare to their counterparts who work in city's key middle school and junior high school, the aforementioned physics teachers grade higher on the necessity of indicators.
     (5)There are significant differences in student's opinions on the necessity of indicators according to their background. In general, students who live in provincial capital or municipality grade higher than their counterparts in city. The ordinary secondary school students and key middle school students at provincial level grade higher on "classroom culture" than their counterparts in city's key middle school, but when it comes to the primary indicator of "design and implementation of inquiry activity", it happens the other way around. The senior high school student grade higher than junior high school student.
     (6)The evaluation indicator system for effective inquiry teaching of physics lesson has good scorer reliability, construct validity when it is used in practical application, meanwhile, express its diagnostic function. According to the data came from two independent observers who scored the picture recording of physics inquiry lessons with the evaluation indicator system, this indicator system achieves good consistency of the two observers, and verify that "inquiry" and "teaching effectiveness" are strong integration power of the indicator system's structure. Meanwhile, the teaching diagnose implemented by the framework of observation note, personal note and diagnostic note, make the indicator system develop its function of improving teacher's inquiry teaching practice.
     According to the findings and conclusions of this study, the application of this evaluation indicator system for effective inquiry teaching of physics lesson, the approaches which would helpful to improve the quality of physics inquiry lesson and suggestions for future study are discussed.
     By means of investigating the connotation, goal and evaluation indicator system of effective inquiry teaching of physics lesson, this study integrate theoretical consideration and empirical research. Which has significance in understanding physics inquiry lesson's value orientation and its features of effective teaching. Meanwhile, the application of this indicator system in specific school situation can greatly facilitate teachers' professional development, improve their teaching practice and benefit to students' academic progress, it maks this study has strong practical significance.
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    1 Campbell, T., Abd-Hamid, N. H.& Chapman, H. Development of Instruments to Assess Teacher and Student Perceptions of Inquiry Experiences in Science Classrooms[J]. Journal of Science Teacher Education,2010, 21:13-30.
    2 Marshall, J. C., Smart, J.& Horton, R. M. The Design and Validation of EQUIP:An Instrument to Assess Inquiry-based Instruction[J].International Journal of Science and Mathematics Education,2009,8:299-321.
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    3 龚荣军.地理探究式教学评价模型的研究[D].武汉:华中师范大学,2008.
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    7 黄鹤,马云鹏.探究式教学实施程度评价的一种探索——SIRA课堂观察模式[J].教育发展研究,2012(6):63-66.
    10 Wong, ASL., Yung, BHW., Guo, Y.Y., Lederman, N.G.& Lederman, J.S. Comparison of Views about Inquiry-based Teaching Held by Science Teachers from Hong Kong, Mainland China and United States[J]. Paper presented at the meeting of NARST, Baltimore,2009.
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    2 Tang, X. W., Coffey, J. E., Elby, A.& Levin, D. M. The Scientific Method and Scientific Inquiry:Tensions in Teaching and Learning[J]. Science Education,2010,94(1):29-47.
    3 Marshall, J. C., Smart, J.& Horton, R. M. The Design and Validation of EQUIP:An Instrument to Assess Inquiry-based Instructional. International Journal of Science and Mathematics Education,2009,8:299-321.
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    1 Marshall, J. C, Smart, J.& Horton, R. M. The Design and Validation of EQUIP:An Instrument to Assess Inquiry-based Instruction[J]. International Journal of Science and Mathematics Education,2009,8:299-321.
    2 Ibid.
    1 Campbell, T., Abd-Hamid, N. H.& Chapman, H. Development of Instruments to Assess Teacher and Student Perceptions of Inquiry Experiences in Science Classrooms[J].Journal of Science Teacher Education,2010, 21:13-30.
    1 王晶莹,郭玉英.中美高中物理教师对探究教学认识的比较研究——基于四节探究教学录像的量化分析fJl.教育学报,2011(2):54-59转67.
    2 Wong, ASL., Yung, BHW., Guo, Y.Y., Lederman, N.G.& Lederman, J.S. Comparison of Views about Inquiry-based Teaching Held by Science Teachers from Hong Kong, Mainland China and United States[J]. Paper presented at the meeting of NARST, Baltimore,2009.
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    2 龚荣军.地理探究式教学评价模型的研究[D].武汉:华中师范大学,2008.
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    2 Campbell, T., Abd-Hamid, N. H.& Chapman, H. Development of Instruments to Assess Teacher and Student Perceptions of Inquiry Experiences in Science Classrooms[J]. Journal of Science Teacher Education,2010, 21:13-30.
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    1 Blanhard, M. R., Southerland, S. A., Osbome, J. W., Sampson, V. D., Annetta, L. A.& Granger, E. M. Is Inquiry Possible in Light of Accountability?:A Quantitative Comparison of the Relative Effectiveness of Guided Inquiry and Verification Laboratory Instruction[J]. Science Education,2010,94:577-616.
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    2 王晶莹,郭玉英.中美高中物理教师对探究教学认识的比较研究——基于四节探究教学录像的量化分析[J].教育学报,2011(2):54-59转67.
    1 沈毅,崔允漷.课堂观察:走向专业的听评课[M].上海:华东师范大学出版社,2008:106.
    1 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:37.
    2 Ibid,30.
    3 Ibid,36.
    4 王较过,何传杰,张梦琴.探究式教学的有效性及其评价[J].教育理论与实践,2010(3):47-48转54.
    5 National Research Council. National Science Education Standards[M]. Washington, DC:National Academy Press. 1996:31.
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    2 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:30.
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    1 Windschitl, M.,Thompson, J.& Braaten, M. Beyond the Scientific Method:Model-based Inquiry As a New Paradigm of Preference for School Science Investigations[J]. Science Education,2008,92(5),941-967.
    2 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:53.
    3 Ibid,171.
    4 AQA. General Certificate of Secondary Education:Science A44612011 Specification [EB/OL]. http://store.aqa.org.uk/qual/pdf/AQA-4461-W-SP-11.PDF,2011-8-06.
    1 中华人民共和国教育部.义务教育物理课程标准[Ml.北京:北京师范大学出版社,2012:54-57.
    2 Tang, X. W., Coffey, J. E. Elby, A.& Levin, D. M. The Scientific Method and Scientific Inquiry:Tensions in Teaching and Learning[J]. Science Education,2010,94(1),29-47.
    3 杜秀芳,高艳.中小学生科学探究策略的发展特点[J].教育学报,2012(6):97-105.
    4 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:27.
    5 Ibid,28.
    6 中华人民共和国教育部.义务教育物理课程标准[M].北京:北京师范大学出版社,2012:10.
    1 李燕琴.基于优秀化学教师的课堂教学评价研究与实施[D].杭州:浙江师范大学,2007:2.
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    6 Horizon Research Inc. Inside the Classroom Observation and Analytic Protocol[EB/OL]. http://www.horizon-research.com/instruments/clas/cop.pdf,2011-06-02.
    7 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M].Washington, DC:National Academy Press.2000:76.
    8 Piburn, M., Sawada, D., Falconer, K., Turley, J. Benford, R.& Bloom, I. Reformed Teaching Observation Protocol[EB/OL].http://physicsed.buffalostate.edu/pubs/RTOP/RTOPTrgGdIN002.pdf,2011-06-02.
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    2 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:91-92.
    3 Windschitl, M., Thompson, J.& Braaten, M. Beyond the Scientific Method:Model-based Inquiry as a New Paradigm of Preference for School Science Investigations[J].Science Education,2008,92(5),941-967.
    1 美国国家研究理事会科学、数学及技术教育中心,《国家科学教育标准》科学探究附属读物编委会著.科学探究与国家科学教育标准:教与学的指南[M].罗星凯等,译.北京:科学普及出版社,2010:133.
    2 崔允漷.有效教学[M].上海:华东师范大学出版社,2009:259.
    1 崔允漷.有效教学[M].上海:华东师范大学出版社,2009:13.
    2 National Research Council. Inquiry and the National Science Education Standards:A Guide for Teaching and Learning[M]. Washington, DC:National Academy Press.2000:36.
    3 Ibid,27.
    4 Ibid,29.
    5 Blanhard, M. R., Southerland, S. A., Osborne, J. W., Sampson, V. D., Annetta, L. A.& Granger, E. M. Is Inquiry Possible in Light of Accountability?:A Quantitative Comparison of the Relative Effectiveness of Guided Inquiry and Verification Laboratory Instruction [J]. Science Education,2010,94:577-616.
    1 另有一位专家因公务繁忙,在第二次咨询问卷已全部发放后才返回了第一次咨询意见,该专家认为各项指标能很好抓住探究课的教学评价要素,对3条评价标准的措辞提出了修改建议,与其他19位专家意见汇总处理后的结果无重大、本质性差异。
    1 李远远.基于粗糙集的指标体系构建及综合评价方法研究[D].武汉:武汉理工大学,2009:40-42.
    1 柯惠新,沈浩.调查研究中的统计分析法(第二版)[M].北京:中国传媒大学出版社,2005:334.
    2 Ibid,334-336.
    1 张文彤,闫洁SPSS统计分析基础教程[M].北京:高等教育出版社,2004:291-292.
    1 Patton,M.Qualitative evaluation and research methods[M].Beverly Hills,CA:Sage.1990:169.
    2 Ibid.171.182.
    1 吴明隆.问卷统计分析实务SPSS操作与应用[M].重庆:重庆大学出版社,2010:181.
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