image of eye Knowledge Integration Environment, Grad School of Education, UC Berkeley, "Using the Net to foster a critical eye in science"
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Research Findings Publications Annual Reports

Summaries of KIE Research Findings

    The challenge of developing an electronic learning environment that truly scaffolds knowledge integration activities has been met by ongoing research activities. Our classroom studies of KIE have enabled successful refinement of our technology design. More importantly, perhaps, we have extended our understanding of knowledge integration: how it occurs in the classroom, and how best to support it as educators. Some examples of research findings include:

  • Searching The Internet. We were able to improve students' performance in the search activity, particularly for those having trouble locating relevant sites, by pooling relevant sites located by other students into the publically accessible KIE Collaborative Search Page (CSP). Similary, we were able to scaffold the search process of searching using a Design Library that contained sites where the annotations refered to specific design strategies. Contact Alex Cuthbert for more information on this work.

  • Online Peer Review. Publishing student work on the Internet is motivational for students. We can use peer review to encourage revision and refinement of ideas. In addition, the types of critiques students make can provide an assessment measure for open-ended projects that require the use of scientific justifications. Contact Alex Cuthbert for more information on this work.

  • Advance Organizers. As part of KIE, students often work with very complex evidence from Web sites. One approach in supporting students as they interpret and apply this information has been to include information about the content, structure, or source of the information in the description for that piece of evidence. Our research shows that students who received the advanced organization were more critical of the evidence and were more successful in interpreting and applying the evidence to the project at hand. Contact Jim Slotta for more information on this work.

  • The Influence of Media. Web evidence often makes use of multimedia representations of content. We studied some of the instructional effects of media by presenting different students with text and multimedia isomorphs of the same scientific evidence. Most of the text-multimedia pairs were interpreted significantly differently, pointing to a strong influence of media representations in general. Multimedia representations did not lead students to cite more "correct" scientific ideas, although it did encourage them to cite more ideas in general, which can be helpful in encouraging a group of students to brainstorm and consider alternative explanations for phenomena.Contact Phillip Bell for more information on this work.

  • The Role of Authority. Not all scientific evidence on the Web is created equal. Unlike a refereed journal or edited textbook, information on the Web can come from virtually anyone. Thus, when students search out relevant evidence for their project, they should be encouraged to consider the source from which the evidence derives, but this is an educational challenge. We have carried out research where evidence was presented to students under the guise of two different authors -- one a University professor and another an avid hobbyist. We found that although students can identify the relevant characteristics of these two different sources before and after a project, it does not influence how they interpret the information from the sources during the project. Contact Doug Clark for more information on this work.

  • Prompting for Reflection. Prompting students to reflect significantly increases knowledge integration in science projects. In early studies, two types of prompts were contrasted--"activity prompts" and "self-monitoring prompts." Prompts focusing on the steps of the activities helped students complete all the pieces of a project, while prompts for self-monitoring encouraged students to demonstrate an integrated understanding of the relevant science. Contact Elizabeth Davis for more information on this work.

  • Effects of Reflection. Building on the above-mentioned work, we found that students respond to self-monitoring prompts for planning and reflection in varied ways, and that students who actually reflect on their ideas achieve significantly better final products than those who do not. Contact Elizabeth Davis for more information on this work.

  • Learning through Electronic Discussion. Students can listen to the teacher and to ideas of others in class discussions. In asynchronous electronic discussion, students have the benefit of reflecting before making a comment, extending the ideas of peers, and revising their own explanations. Research indicates that electronic discussions can be designed to support productive discourse for science learning. Students participate more in electronic discussions compared to face-to-face class discussions. Moreover, girls more likely to participate in science discussions when comment anonymity was an option. Contact Sherry Hsi for more information on this work.


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