A r c h i v e d I n f o r m a t i o n
Technology and Education Reform: Technical Research Report - August 1995
3. Study Aims, Questions, and Methodology
As stated in Chapter 1, this study was designed to provide insights both into how technology can support constructivist learning activities at the classroom level and into the practical and organizational factors that promote or hinder technology implementations within schools. For this reason, research questions were specified at both the classroom and the school levels. Research Questions
Classroom Teaching and Learning Questions
What examples does the classroom offer of using technology to support long-term, student-centered projects?
- What does the technology add to the project that would not be there without it?
- What does the teacher see as the effects of the technology on students? On his or her own behavior and attitudes? On classroom dynamics?
- What do students perceive to be the pros and cons of using technology in the classroom?
- What observable evidence is available regarding the level of student achievement with technology, the degree to which technology prompts cooperation, and the effect of technology on the students' level of motivation?
- What technologies are used in the classroom and how much access does each individual student have in the average week?
- What are the dominant uses of technology in the classroom--would they be characterized as tutorial, exploratory, tool, or communication uses?
- What support does the teacher have for developing ideas for instructional use of technology and refining his or her skills in using technology? To what extent has lack of support been a barrier to the use of technology in the classroom?
- What kind of technical assistance is available? To what extent has lack of technical assistance been a barrier to the use of technology in the classroom?
School-Level Implementation Questions
- What factors led to the initiation of reform efforts? What role was played by (a) federal, state, or local school district policies; (b) producers of hardware, software, or other courseware; (c) business partnerships; and (d) research?
- What were the goals of the reform? How was it intended to differ from traditional or previous practice in terms of (a) curriculum; (b) instructional methods; (c) student motivation and self-concept; and (d) student and teacher roles?
- What resources were required to design, develop, and implement the reform? If extra funds were required, how were they obtained? What were per student costs?
- What factors and circumstances affected the design, implementation, and sustenance of the reform? What role was played by (a) federal, state, or local education agencies; (b) producers of hardware, software, or other courseware; and (c) business, foundation, or research partners?
- What was the actual impact of the reform on (a) curriculum; (b) instructional practices; (c) student motivation and self-concept; (d) student and teacher roles; and (e) student performance?
- How were outcomes measured? To what extent can the influence of the technology be separated from that of other portions of the reform?
- What features cut across successful programs? Why are these features important? What features are associated with less successful outcomes?
- To what extent have successful models been replicated in other classrooms, schools, or districts? What factors support or impede dissemination?
- What guidance can be given to other sites wishing to implement one of the reform models?
Overview of the Methodology
Site Selection
Given the resources to conduct case studies at just nine sites, the research team devoted considerable effort to choosing cases that would provide a range of worthwhile examples for other schools. We were quite aware that no site was likely to prove to be exemplary in all respects, and that all schools, including those that are pioneers, experience difficulties and unevenness in their programs. We looked for sites that had a history of using technology not for its own sake, but rather as a support for constructivist learning and a broader education reform agenda. Further, both OERI and our research team felt that it was important to pull illustrations of exemplary instructional uses of technology from public school classrooms serving students from diverse backgrounds and from low-income homes. We sought to document the fact that technology-supported constructivist learning activities can unfold not just in affluent suburban schools but in classrooms facing all of the funding and social issues besetting so much of the nation's education system.
We collected ideas for potential case study sites through a review of the literature, through discussions with practitioners and education technology experts at a national conference, from our project advisors, and from our own network of school and technology contacts. We conducted telephone interviews with nearly 40 potential sites to collect information regarding the following criteria:
- Potential for providing general lessons about the role of technology in educational reform. We looked for sites that could generate rich information about the design, implementation, and impact of technology applications in the context of educational reform. We gave priority to sites that appeared to be engaged in a cohesive effort directed at improving education for all students.
- Illustration of the roles of various players in education reform. To understand the roles of states, districts, and schools as well as those of the business community, parents, and foundations, we tried to obtain a set of sites that represented variation in the set of major "players" involved in bringing about education reform.
- Student population affected. Technology implementations aimed at promoting learning among economically disadvantaged students, and students of diverse ethnic and cultural backgrounds, were targeted. Technology is often used with disadvantaged students in ways that accentuate the differences between the instruction given the "haves" and the "have nots." Although many of the more constructivist uses of technology we were interested in have occurred most typically in schools serving relatively affluent populations, we sought out schools using technology in programs that challenge all students, including those whose backgrounds might have been regarded as putting them at risk of school failure in more traditional programs.
- Stage of technology implementation. Design and implementation issues can best be addressed by studying sites in various stages of implementation. Although we wanted sites with enough experience to be able to draw some conclusions about what was and was not working, we arranged for variation in the schools' length and intensity of interaction with technology.
- Grade-level focus. Since grade level affects the design, implementation, and impact of technology applications (reform has proved much more difficult at the secondary school level), we made an effort to include middle and secondary settings as well as elementary schools within the site sample.
Applying these criteria to the potential sites for which we had conducted phone interviews, we made recommendations to OERI and negotiated a final case study sample, described in Table 1. (The school names appearing in the table and throughout this report are pseudonyms.)
Table 1
Case Study Sites
| Site |
Level |
Student Body |
Setting |
Region |
Key Features |
Free/Reduced- Price Lunch |
Demographics |
| Bay Vista Elementary |
E |
25% |
89% minority; 25% ESL |
Suburban |
West
|
State model technology school site for science |
TeacherNet (Network of 462 schools) |
All |
Varies |
Varies across schools |
Includes rural, urban, and suburban |
Midwest |
Partnership of 54 school districts across 2 states participating in network activities |
| South Creek Middle |
M |
65% |
60% low-income Hispanic |
Suburban |
Southwest |
Reopened in 1991 as model restructured school with high level of connectivity |
| Nathaniel Elementary |
E |
85% |
95% minority; 59% LEP |
Urban |
West |
Inner-city school involved in classroom projects including communal databases for cooperative learning and video-supported science and language arts curricula delivered through satellite dish |
| Progressive |
E |
23% |
Wide SES range; 61% minority |
Urban |
West |
Charter school with team-taught classes, project-based instruction and 1 computer for every 2 students |
| John Wesley Elementary |
E |
100% |
86% Hispanic including many children of migrant workers; 64% LEP |
Suburban |
West |
Technology introduction initiated by teacher team working on curriculum and instruction as part of school's active restructuring effort |
| School of the Future |
M |
80% |
Wide SES range; 67% male |
Urban |
North Central |
Designed as "break the mold" school incorporating technology; course offerings designed around student interests |
East City High
(School-Within- a-School) |
S |
40% |
35% African-American |
Urban |
Midwest |
Apple Classroom of Tomorrow (ACOT) within urban secondary school |
Maynard
(School-Within- a-School) |
M 4-6 |
77% |
71% African-American; 27% Hispanic |
Urban |
Northeast |
Mini-school provides students with extensive access to computer lab and wide area network resources |
On-Site Activities
With the exception of the use of video to document our interviews and classroom observations, our data collection procedures followed standard qualitative procedures. Two-person evaluation teams visited each of the nine sites for a period of 3 to 8 days over a 2-year period. At each site, we did initial brief observations of a broad range of classrooms in order to pick two classrooms for more intensive observation and videotaping.(2) Our criteria for choosing these classrooms were a combination of the theoretical and the pragmatic--from the early discussions with administrators and teachers, we tried to select classrooms that were using technology in tool-like ways to support complex, student-centered activities. At the same time, we were constrained by schedules, trying to select classrooms that would be doing something interesting on their technology-supported projects on the particular days we would be present to observe them. These more intensively studied classrooms were typically observed over repeated days, sometimes on multiple visits. More extensive interviews were conducted with the teacher or teachers, and typically one of our two student focus groups was conducted with students drawn from this class. In addition, as our data collection proceeded, we found it useful to interview individual students or small groups as they developed or exhibited their technology-based work or demonstrated how they used particular pieces of software. We observed and videotaped classes, school activities, teacher meetings and training, and other key events related to technology use in these classrooms. In addition to the classroom-based data collection, we interviewed a wide range of other school respondents, including principals, project coordinators, and school technology coordinators. Moving out from the school, we then interviewed representatives of other institutions that were pivotal in the school's reform effort. These might include district personnel, researchers, representatives from business partners, leaders from parent groups, or education consultants. Our final selection of respondents depended on the school's particular implementation history and its perception of the key players within it. For individual sites, we also interviewed a school board member, a union leader, and a state administrator.
Planning for Cross-Site Synthesis
National studies involving multiple sites require advance planning and structuring of the data collection effort so that information can be systematically collated and synthesized for cross-case analysis. To this end, we planned a strategy that included site visitor training, the use of interview guides for each type of respondent (e.g., teachers, principals, technology coordinators), development of debriefing forms for the school and classroom levels, and the use of qualitative analysis software (Seidel et al., 1988) to facilitate qualitative data analysis. We used our research questions as a general blueprint for designing both interview protocols (lists of topics to be covered) and debriefing forms (case study outlines). The purpose of a debriefing form is to provide a standardized framework for writing a case study report. This is especially important when multiple sites and multiple researchers are involved. We used two debriefing forms for our study, one for schools and one for classrooms. The school-level debriefing form took a broad view that included a review of the educational context of the site; demographic information; educational indicators; history of educational reform at the site; levels of involvement at the district, state, and federal levels; history of technology applications, including incentives for use, when and how the applications started, technologies used, target grades and curricula, key school players, and key outside players; overview of the way the technology is used by students and teachers; implementation details, including problems encountered, strategies for overcoming barriers, and facilitators and costs; impact of the technology use on students, teachers, and the school climate and processes; the way the technology use is evaluated; and respondents' reflections and advice.
The classroom debriefing form was similar in scope but focused on what was observed in the classroom during the site visit. Site visitors were prompted to write about the classroom context, features of reform that they observed, the classroom activities that took place, the technologies involved (e.g., microcomputers, wide area networks, hypermedia, animation, simulation), how the technologies were used by students and teachers, and intended and actual benefits of the technology use from the perspective of students and teachers. The debriefing forms for our schools and classrooms are presented in Volume 2: Case Studies.
A special feature of our cross-case synthesis plan involved the use of software for qualitative data analysis, in our case, THE ETHNOGRAPH. The software facilitates the analysis process by searching for and retrieving data marked by code words or combinations of code words. It prints out text organized by the code or codes specified in a search procedure. The printout then can be assembled in a way that allows the researcher to read all the text pertaining to a particular topic, concept, or variable across all sites or a subset of sites. A critical step in using such software is the generation of a set of codes for labeling segments of text. We began the process of developing codes concurrently with designing the debriefing forms. Details of this procedure and a listing of our analytic theme codes are provided in Volume 3: Technical Appendix.
Software-Supported Cross-Case Analysis
After the majority of write-ups were complete, the research team members read one another's write-ups and met as a group for a full day to share impressions and begin the process of interpreting the findings from a cross-site perspective. We began by focusing on individual cases and then worked across cases. Our shared conceptual framework, exemplified by the debriefing form, helped to structure the discussion, but by this time, we were thinking beyond the debriefing framework to look for higher-order patterns and issues that we had not recognized when the debriefing forms were designed. We focused especially on successful sites and what made them so, and the apparent reasons some supposedly "exemplary" sites hadn't turned out to be so exemplary after all. As we generated observations about our sites, we began to identify potential cross-site themes and corresponding theme codes. The methodological volume (Volume 3) contains a full listing of theme codes, as well as the heading codes from the debriefing forms.
Once the debriefing forms were converted to ASCII files, the next step was the insertion of codes. Embedded heading codes were inserted on-line by clerical staff; theme coding and other more complicated coding were inserted by researchers on hard-copy printouts and then inserted into THE ETHNOGRAPH files by clerical staff.
Once all the codes were inserted, searches were run. A search pulls out all segments of text that are coded with the code word being searched. (Volume 3 contains examples of search output.) Multiple code searches can be done on all files or a subset of files, so that researchers have limitless ways to explore the data.
The search output then was organized into six major categories:
- Technology Implementation
- Technology Climate
- Curriculum Content and Technology Uses
- Reform Features of Technology Use
- Teacher Training and Outcomes
- Student Outcomes.
The search output filled four large notebooks. Within each notebook, the printouts were further organized by code word. For example, the Technology Implementation notebooks encompassed 29 codes beginning with HISTORY. Text coded with HISTORY was organized by site, after which the next set of printouts would appear. This way of organizing the printouts was selected because it enabled the researcher to read across sites while staying focused on a particular aspect of the technology application--in this case, the history of each implementation. In addition to facilitating the consideration and elaboration of themes across the sites, THE ETHNOGRAPH also facilitated quick counts and status checks regarding the occurrence of selected variables within each of the sites. This provided an additional means for the researchers to verify and summarize their findings. For example, the researchers were quickly able to assess the number of classrooms within and across sites that reported specific intended benefits (e.g., higher-order thinking skills) and teacher-observed effects (e.g., increased student motivation, greater collaboration) in relation to the integration of technology. The findings of the cross-case analysis supported by THE ETHNOGRAPH are presented in Chapters 5 through 10.
2 The single exception was the "site" that was actually a network of over 450 schools. For this site, we visited four schools and selected a single electronic research class for more detailed observation and description. Hence, there were 17 classroom activities in our final sample of detailed vignettes.
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[Review of Literature (part 2 of 2]
[Case Study Profiles]