| Introspective Summation—Within a Community of Scholars | ||||||||||||||||||||||||
Self Evaluation. The last component of my course portfolio is an introspective self-evaluation. Because I understand the importance of self-evaluation for personal and professional growth, I modeled this for my students by reflecting upon the required course evaluations; and on other forms of formative and summative data such as students’ Learning Logs, regular anonymous evaluation of instruction, and end-of-semester electronic evaluations. I also assessed the benefits of analyzing student feedback and “just in time teaching.” In a real sense, this portfolio represents my Learning Log for E328. I found it to be a useful way to think about how the common ground of success could be used as a tool to enhance students’ intellectual engagement; and how removing learning roadblocks, confronting students’ preconceptions, and promoting intellectual discourse helped them understand that teaching as a complex, amorphous activity which requires an intrinsic understanding of the teaching-learning process. Although I could see evidence of students’ increased engagement with intellectual ideas and real world teaching issues, some things I hope my students learned were difficult to measure. .Although I have no tangible evidence, I hope that by making students aware of my own self-study within a community of scholars, they were inspired to become reflective practitioners and researchers of their own teaching and will one day become master teachers. Here, then, is a summation of the evaluation data I collected, and my thoughts on what this all means. |
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Other
Evaluation Data. In addition, I collected and analyzed data from three other
sources: Learning Logs,
regular evaluation of instruction throughout the semester (see samples
below), and end-of-the-semester electronic evaluations. The most
useful data is the feedback in the Learning Logs. I read the Logs as soon
as class was over, and took appropriate action. If three or more students
asked the same question, I often e-mailed
information to the entire class. If only one student asked a question,
I called, e-mailed or wrote a response in that student’s Log. I also used
student feedback to identify misconceptions or concerns, which resulted
in the redesign of activities or added discussion time. In addition to
Learning Logs, I also got regular feedback in the form of anonymous teaching
evaluations like these: |
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Benefits of Analyzing Student Feedback. The benefit of analyzing student feedback and “just in time teaching” was increased student “satisfaction.” Some might argue that student satisfaction is unrelated to intellectual engagement, academic quality, or learning. I disagree. I believe that when students are dissatisfied, they focus on the instructors’ behavior and not on their own. By attending to students concerns, I am able to maintain high standards AND create an environment conducive to learning. For instance, when students told me the pace was too fast, I modified activities and extended the time for intellectual engagement, which resulted in more meaningful discourse. When student feedback told me that although they liked the hands-on investigations, they did not always see the purpose of what we were doing, I added “Purpose” to the directions that accompanied investigations. The result was increased engagement in the analysis of teaching issues–––the “why” and the “what if” rather than just the “how.” Most important, utilizing student feedback to plan instruction is helping me learn to overcome students’ preconceived notions of the nature of science and science teaching. Analysis of students’ feedback has helped me better understand their learning needs, which has resulted in improved teaching evaluations. Yet for me the real reward is not improved evaluations, it was in seeing my students become more confident and competent future professionals. |
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Creating Dissidence. Another area of change that resulted in enhanced intellectual engagement and academic quality was the creation of activities that produced cognitive dissidence. My goal was to confront students’ preconceptions of teaching by setting up learning situations where “aha has” were more likely to happen. These activities were typically unique experiences designed to create disequilibrium, for as Piaget pointed out, the key to learning lies in the mutual interaction of the accommodation of concepts (schema) and the assimilation of experiences (events). For example, I ended the first class with the “Tale of the Teaching Elephant,” my version of the “Blind Men and the Elephant.” Students were asked to think about the part of the elephant they were holding, and to analyze and discuss what aspect of teaching it represented. This assignment allowed me to evaluate students’ thinking and writing abilities, and to validate their “internship of observation.” It also made the point that we cannot encompass the whole teaching-learning task unless we work collaboratively, a theme that was woven into many aspects of the course. An investigation designed to promote cognitive dissidence juxtaposed the use of different models to confront students’ misconception that the best place to begin a science lesson is by defining terms. Embedded within the investigation of apples and eggs (see pages 1-3) was a lesson on the use of models in science teaching. Students were able to analyze the two activities and to see that using models can result in either “activitymania” or “doing science.” As they learned so often throughout the semester: it’s not the activity, it’s how you use it. |
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Promoting Intellectual Discourse. In addition to removing roadblocks and confronting students’ preconceptions of teaching through activities and investigations that created cognitive dissidence, assignments and exam were geared toward the promotion of intellectual discourse. For instance, the Science for All assignment promoted the intellectual engagement of students as they crafted argues for, or against, differentiated science instruction for females, L.D. and E.S.L. students. I used the students’ responses to challenge their “one right answer” perceptions by asking the class to decide which response was “right,” the top response for or the top response against differentiated instruction. By engaging in an authentic debate about a real teaching issue using their arguments, students discovered for themselves that there are not always “right answers” to difficult teaching issues, and that opposite points of view can BOTH be valid. Another example of engaging students in intellectual discourse was the Midterm Exam. Unlike traditional recall tests, the Midterm required students to synthesize what they had read in the context of a real classroom, connecting theory to practice and stimulating intellectual engagement (see Midterm student sample). |
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This portfolio website is an outgrowth of a paper version originally created in 2002. |
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Components || Introduction || Precis || Assignments || Student Work || Lesson Plan || Summation || E328 Home Page |
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Created by Judith
Longfield, January 2004 |