North Carolina Department of Public Instruction NC State University/Friday Institute for Educational Innovation SERVE Center at the University of North Carolina- Greensboro SETDA Quasi-Experimental, Experimental, and Case Studies North Carolina State University/ Friday Institute for Educational Innovation Comprehensive Multi-method Evaluation Design Case Study Quasi-Experimental Design Experimental Design Quasi-Experimental Design: Process Quasi-experimental approach: A matched-groups, mixed between/within longitudinal design In 2003, 11 comparison schools were selected based on Grade structure Geographical proximity 01-02 End of Grade (EOG) Scores Student Demographics Size For all variables, hypotheses were framed as: 1d - 1a > 2d - 2a Quasi-Experimental Design: Variables and Measures (selected) Variables Measures Student achievement EOG tests Student technology Tech skills surveys skills NETS-T survey Teacher tech skills TAC and TAT Attitudes toward surveys technology Instructional AOI survey strategies SOC questionnaire Stages of Concern Leadership Leadership Style Practices Inventory Implementation of STNA model Quasi-Experimental Design: IMPACT and Comparison Student Demographics, 2005-06 70.0% 60.0% 50.0% 40.0% 30.0% 20.0% 10.0% 0.0% Amer. Mulit- Male Female White Black Hisp. Asian LEP Migrant EC FRL Indian Racial IMPACT 50.7% 49.3% 45.5% 48.6% 2.8% 0.2% 0.6% 2.2% 1.9% 0.3% 14.6% 66.4% Comparison 50.5% 49.5% 33.8% 55.8% 7.0% 0.5% 0.5% 2.3% 2.7% 0.2% 21.5% 64.4% Source: DPI 2005-06 School Report Cards, http://www.ncreportcards.org/src/. Quasi-Experimental Design: Teacher Quality Statistics Teacher Quality School Year IMPACT Comparison State Avg. % Fully Licensed 2002-03 82.6 76.0 84.0 2003-04 86.0 85.1 85.0 2004-05 88.6 87.8 88.8 2005-06 90.6 92.6 88.3 % Emergency 2002-03 4.3 5.6 NA License 2003-04 2.6 3.7 NA 2004-05 3.4 3.4 5.2 2005-06 2.1 2.3 3.3 % Lateral Entry 2002-03 9.5 8.7 NA 2003-04 8.5 8.2 NA 2004-05 6.2 5.9 6.5 2005-06 5.2 3.9 5.8 % Classes Taught 2002-03 80.8 86.8 83.0 by HQT 2003-04 87.6 86.3 85.0 2004-05 89.3 87.2 87.4 2005-06 97.8 96.8 93.6 Quasi-Experimental Design: IMPACT and Comparison Teacher Retention, Year 1-3 100 95 90 85 80 IMPACT 75 Comparison 70 65 60 0-3 4-7 8-10 11-15 >15 Years of Experience Quasi-Experimental Design: Implementation (STNA) Impact schools were rated more highly by teachers in all 13 areas: Vision and leadership Classroom practice- Technology planning, instructional budgeting, evaluation strategies Supportive Classroom practice- environment for risk- planning taking Student activities Resource media, Teaching practices, software tools Student outcomes Community linkages (perceived) Professional development All effects significant at p<.001, partial 2 ranged from 0.05 to 0.43 Quasi-Experimental Design: Implementation (IMPACT rubric) Impact schools were rated more highly by teachers in 8/16 areas over 3 years: Instruction Collaboration Needs assessment Managing resources Designing facilities Policies Planning Evaluation All effects significant at p<.05, partial 2 ranged from 0.33 to 0.68 Quasi-Experimental Design: Leadership Ratings (LPI) All IMPACT principals who were present for all three years of the grant were rated more highly in Year 3 than in Year 1 on all 5 constructs (Challenging the Process, Inspiring a Shared Vision, Enabling Others to Act, Modeling the Way, and Encouraging the Heart). These principals grew most in ―Challenging the Process‖ and ―Inspiring a Shared Vision.‖ Quasi-Experimental Design: LPI Principal Ratings, Year 1-Year 3 10 Year 1 (N=95) 9.5 Year 3 (N=208) 9 Mean Score 8.5 8 7.5 7 CTP EOA ETH ISV MTW LPI Constructs Quasi-Experimental Design: Leadership Team Ratings on LPI On all 5 constructs, media coordinators out-scored principals, in absolute terms. On 4 of 5 constructs, technology facilitators out-scored principals, in absolute terms. These findings indicate that IMPACT teachers value the leadership qualities of media coordinators and technology facilitators, and that these individuals are seen as better leaders, in some respects, than school principals. Quasi-Experimental Design: LPI Ratings for Media Coordinators, Principals, and Technology Facilitators 10 MC (N=257) 9.5 Principal (N=277) Mean Score 9 TF (N=247) 8.5 8 7.5 7 CTP EOA ETH ISV MTW LPI Constructs Quasi-Experimental Design: Teacher Outcomes (ISTE NETS-T) 3 2.9 2.8 2.7 2.6 IMPACT 2.5 Comparison 2.4 2.3 2.2 2.1 2 Year1- Year1- Year2- Year2- Year3- Year3- pre post pre post pre post Quasi-Experimental Design: Teacher Outcomes (attitudes toward technology) IMPACT teachers showed stronger change in attitudes or more positive attitudes overall on: Perceived utility of IT Email Internet Multimedia Productivity-teacher Productivity – student Quasi-Experimental Design: Teacher Outcomes (attitudes toward technology) IMPACT teachers showed stronger change in attitudes or more positive attitudes overall on: IMPACT IMPACT Comp. Comp. F for interaction Subscale Time #1 Time #6 Time #1 Time #6 (all df 1, 197) 2 Teacher-centered 4.33 4.22 4.49 4.03 14.57*** .07 activities Constructivism 3.17 3.52 3.26 3.24 9.85** .05 Technology utilization 2.90 4.06 2.87 2.82 83.24*** .30 Quasi-Experimental Design: Teacher Stages of Concern Years 1-3 100 90 Year 1 (N=389) 80 Year 2 (N=264) Year 3 (N=287) 70 Percentile Ranking 60 50 40 30 20 10 0 Stage0 Stage1 Stage2 Stage3 Stage4 Stage5 Stage6 Quasi-Experimental Design: Student Use of Computers in Grades 3-5, 2004-05 90% IMPACT schools Comparison schools 80% Percent Responding "Yes" 70% 60% 50% 40% 30% 20% 10% 0% Core subject areas Research for Reports Word Processing Presentations Quasi-Experimental Design: IMPACT v. Comparison Media Center Visitation, Year1-Year 3 2.5 Average # Visits Per Week 2.0 1.5 1.0 IMPACT Comparison 0.5 0.0 2003-04 2004-05 2005-06 Quasi-Experimental Design: IMPACT v. Comparison Math Achievement 261 259 257 255 IMPACT 253 Compar. 251 249 247 2002-03 2003-04 2004-05 Effect significant at p<. 0001, controlling for grade, race, exceptionality, Free/reduced lunch, sex, absenteeism Quasi-Experimental Design: Reading Growth 2003-2005, by Grade 20 EOG growth from baseline to Year 2 18 16 14 12 10 IMPACT 8 Comparison 6 4 2 0 Grade 3 Grade 5 Grade 8 Effect significant at p<. 05, controlling for free/reduced lunch, race, exceptionality, sex, absenteeism, parent education Case study: process In the 2004-2005 school year, a preliminary case study of one intervention school’s community outreach program was conducted Data sources included Phone interviews with patrons Structured interviewed with staff Archival documents (e.g. attendance data, course offerings, budget data) In 2005, funds for the case study were redirected to the experimental design component Case study: outcomes Findings suggest that low-cost technology alternatives can be beneficial to school-based community outreach programs At the same time, personal attributes of key staff played a pivotal role in the success of programming. Experimental Design: Process In 2004, Schools Attuned was selected as the intervention in the experimental design However, a different intervention (IRCMS) was approved and implemented, beginning in the spring of 2005. Experimental Design: Process (continued) IMPACT Non-IMPACT 23 14 IRCMS Classrooms Classrooms rd Program (3 =10, 4th=5, 5th=8) rd (3 =5, 4th=4, 5th=5) (570 students) (267 students) 22 16 No Classrooms Classrooms IRCMS (3rd=5, 4th=7, 5th=10) rd (3 =6, 4th=5, 5th=5) Program (497 students) (351 students) Experimental Design: Student Measures Measures Gates-MacGinitie Reading Comprehension Test Reading EOG Metacomprehension Strategy Index Jr. MAI (Metacognitive Awareness Inventory) Reading Efficacy Teachers’ rating of student metacognition Experimental Design: Teacher Measures Measures Technology use survey TAC survey DeFord Theoretical Orientation to Reading Profile (TORP) (pretest only) MAI (Metacognitive Awareness Inventory) Teachers’ Sense of Efficacy Scale (TSES) Teaching Reading Efficacy Formative Evaluation SERVE Center at the University of North Carolina-Greensboro LANCET Implementation and Outcomes Capacity for Applying Project Evaluation (CAPE) www.serve.org/evaluation/capacity/ Elizabeth Byrom, SERVE Jenifer Corn, SERVE CAPE is… A suite of resources, tools, and professional development activities, designed to help educators collect and use data to make decisions that will help them improve the implementation and impact of their technology projects. SERVE’s Role Collaborate with partners Identify or develop resources and tools Design and facilitate on-going professional development and support for school/district team Document lessons learned about capacity building for project evaluation School/District Teams’ Role Create a project logic map Develop an evaluation plan for their EETT project Implement evaluation plan Collect and analyze data Use data to make informed decisions Make adjustments to project implementation Capacity for Evaluation Formative Evaluation – used to ―monitor and adjust‖ projects, to the ultimate benefit of students Capacity – the ―organizational wherewithal‖ to undertake project evaluation, more than just skills and knowledge for individuals CAPE Components A Theoretical Framework for Capacity Building An Evaluation Framework A Professional Development Model Framework for Capacity Building 1. Engaging Moral Purpose Engaging teachers’ beliefs, the need or motivation to undertake formative project evaluation (Fullan, 2005) Foundation Drivers for 2. Understanding the Change Process Change in Understanding the change process to engender ownership of evaluation work (Fullan, 2005; Hall & Schools (Fullan, Hord, 1984; Horsley & Loucks-Horsley, 1998; Rogers, 1995; Waters, Marzano, & McNulty, 2003) 2005) The desired change is the adoption of the 3. Building Capacity A. Knowledge, Skills, and Attitudes of Individuals formative Collective and ongoing (Guskey, 1986, 2000) project policies, strategies, evaluation resources, and other practices. actions to increase B. Resources – infrastructure, tools, people, money, and time needed to organizational power to adopt the innovation. implement project evaluation Shared Identity C. Professional Community (Newmann, King, & Motivation to work (Wenger, McDermott, & Snyder, 2002) Young, 2000, as cited together on in Fullan, 2005, p. 40) evaluation (Fullan, D. Program Coherence 2005) (Newmann, Smith, Allensworth, & Bryk, 2001) E. Shared Leadership (Lambert, 2002) The CAPE Introduction Getting Started Evaluation How to Use the Planning for Framework Resources Evaluation Theory Outcomes The Plan Explaining How Goals, Basic Your Project Objectives, and Components Works Strategies Data Sources Implementation The Report Some Putting the Communicating Examples Evaluation to the Results Work Examples Resources Index Real Evaluation of Materials Plans and Reports Evaluation Planning Tools Logic mapping activities and templates Strategy and objective planning templates and guides Data-collection planning guides Evaluation Planning Map project logic Clarify strategies and objectives Define evaluation questions Propose benchmarks Select methods and measures Conduct the evaluation Draw inferences from data IMPACT Model School Logic Map IMPACT Model School Objective Planning Guide Data Sources for EETT Projects Technology Needs Assessment Classroom Observation Technology-Partnership Survey Professional Development Questionnaire Rubrics for lesson plans and student products Teacher Reflection Log CAPE Instruments and Protocols School Technology Needs Assessment (STNA) Professional Development Questionnaire (PDQ) Looking for Technology Integration (LoFTI) drop-in protocol Technology and School-Family- Community Partnership survey School Technology Needs Assessment (STNA) Online STNA Bar graphs Repeated use indicates changing needs over time Used in about 200 schools to date, with more than 7914 respondents Now in Version 3.0 STNA Report STNA Research Study Internal Consistency Reliability (N=2094) Data analyses showed each of STNA constructs and subconstructs to have high internal consistency reliability (alpha ranged from .807 to .967). These results indicates that STNA is a high quality survey instrument that provides schools and districts with information that can be used to make decisions about each of the constructs and subconstructs. STNA Research Study Exploratory Factor Analysis (N=2050) The initial analyses revealed 13 factors with an eigenvalue greater than one, accounting for 62.32% of the total variance. Ten of the 13 factors were largely the same constructs initially identified for STNA. These results provided strong support for the validity of the constructs identified within STNA. Professional Development Questionnaire (PDQ) PDQ Easily adapted to specific settings or activities Assesses participants’ perceptions of the quality of professional development implementation Does not provide data about the impact of PD activities – whether they made a difference LoFTI Looking For Technology Integration Classroom technology observation protocol LoFTI Designed through collaboration with team of school practitioners Reports a profile of technology use at the school level Paper-pencil version available Palm version almost ready School-Family-Community Survey School-Family-Community Survey Designed for a range of stakeholders—staff, parents, others Use results in making decisions about technology for supporting family and community involvement efforts Version 1.0 is available online or in paper-pencil form CAPE Professional Development Face-to- Computer-Mediated Professional Development Face-to- Face Face Multiple Multiple Multiple Multiple Introductory Projects Projects Projects Projects Culminating Event for Event for Teams of Individual Individual Individual Individual Teams of Project Project Project Project Educators Educators Online Community of Practice (CoP) CAPE Professional Development Academies and Institutes Workshops Virtual Meetings, conference calls and videoconferences (CMPDs) Presentations Online community of practice Teams sharing successes and lessons learned Technical Assistance CAPE Professional Development CMPD Topics Initial Implementation of Evaluation Plan Evaluation Management Plans Baseline Data Collection Maximizing School Buy-in & Community Support Data Analysis & Interpretation Notes to Project Leaders Identify and address the challenges and costs of evaluating projects/programs. Use team-based planning and implementation of evaluations. Recognize that collecting data is relatively easy—analyzing and using data is the hard part. Both require a lot of time. Notes to Project Leaders Communicate to generate buy-in. Define and share the evaluation purpose—needs assessment, required reporting, data-driven planning, or program improvement? Reach consensus on a definition of the program or project being evaluated. Notes to Project Leaders Separate project implementation from impact, and measure both. Define the evaluation questions that matter to the evaluation purpose. Plan for and collect all of the data, and only the data necessary to answer the questions. Manage the evaluation process. Capacity for Evaluation Capacity Building – NC DPI IMPACT I Schools IMPACT II Schools 1-2-1 Grant Schools IMPACT Academies based on the SERVE ATA Model Collaboration Toolkit IMPACT Video Series NC LEA and Charter School Educational Technology Plans Dissemination Activities LANCET Dissemination NC State Dissemination Activities Ellen Vasu Jason Osborne Lisa Grable NC State Dissemination Activities Publications Corbell, K.A., Osborne, J.W., & Grable, L.L. (in press). Examining the Performance Standards for Inservice Teachers: A confirmatory factor analysis of the Assessment of Teachers’ NETS-T Expertise. Computers in Schools. Osborne, J.W., Overbay, A., & Vasu, E.S. (in press). Designing grant proposals and evaluation plans in the age of No Child Left Behind. Journal of the American Association of Grant Professionals. Overbay, A., Grable, L.L., & Vasu, E.S. (2006). Scientifically-based research: Postcards from the edge. Journal of Technology and Teacher Education (JTATE), 14(3), 623-632. NC State Dissemination Activities Manuscripts in Preparation Measuring Teacher Attitudes Toward Computers and Teacher Attitudes Towards Information Technology Dimensions of Technology Skills Learning Styles and Resistance to Change NC State Dissemination Activities Presentations 26 National and International Conference Presentations and Workshops 6 State and Regional Conference Presentations SERVE Dissemination Activities CAPE Website http://www.serve.org/Evaluation/Capacity/ 5,434 hits since November 10, 2006 Manuscripts in Preparation CAPE Framework, STNA, CAPE PD Model, Data Sources for Evaluating Technology Projects Presentations 13 Evaluation Academies/Institutes/Workshops 13 National Conference Presentations and Workshops 9 State Conference Presentations and Workshops SERVE Dissemination Activities Instruments School Technology Needs Assessment (STNA) (n=7914) Professional Development Questionnaire (PDQ) Looking for Technology Integration (LoFTI) drop-in protocol Technology and School-Family- Community Partnership survey (n=88) SERVE Dissemination Activities Building Evaluation Capacity Studies Microsoft Partners in Learning Irvine Foundation study participant Spread REL-SERVE Evidence-Based Education National Center for Homeless Education SETDA-Polyvision Study Graduate Courses – NCSU, UCF, Johns Hopkins Dissertation/Thesis – NCSU, UNC Dissemination – NC DPI IMPACT Grants 1-2-1 Grants IMPACT Guidelines revision IMPACT for Administrators IMPACT Website Dissemination – NC DPI North Carolina State Board of Education Future-Ready Students Future-Ready Classrooms initiative Roadmap to Replicability NC State University/Friday Institute for Educational Innovation Previously Validated Instruments State End-of-Grade tests (grades 3-8) NC Writing Test (grades 4 & 8) NC Computer Skills Test (grade 8) Gates-MacGinitie Reading Test (Grade 2, primary schools only) Computer Attitude Questionnaire (4-8) Young Children’s Computer Inventory (K-3) Teacher attitude toward technology integration (TAT) Teacher attitude toward computers (TAC) Stages of concern questionnaire Resistance to Change Leadership Practices Inventory (LPI) Reviewed Instruments Examined the factor structures of: Teachers’ Attitudes Toward Computers (TAC) Teachers’ Attitudes Towards Information Technology (TAT) Performance Standards for Inservice Teachers Technology Skills Checklist 3-5 Technology Skills Checklist 6-8 School Technology Needs Assessment (STNA) Activities of Instruction Survey was also reviewed Other Instruments Used Classroom Climate (3-8) Teacher and Administrator Demographic surveys NETS-A Performance Profile (Administrators) IMPACT Rubric IMPACT Implementation Checklist Classroom Equipment Inventory Media and Technology Inventory Treatment and Control Considerations Competitive grant application process Comparison group incentives Cross contamination Time intensive matching process Requires personal contact with all groups Attrition Assessing Students in K-2 State prohibition of primary grade standardized academic assessment Expense of appropriate instruments and cost of extra testing administrators Group administration requires one- on-one attention Young ELLs Exposure Issues Teacher concerns about observation/evaluation Only a few schools involved in a very high profile project Desire to ―look good‖ Data Collection Paper and pencil or electronic Computer access, reduced response rate Logistics of distribution and collection of paper surveys Middle school students- no single classroom teacher Student information systems Formative v. external evaluation Site visits, no normal school days Navigating the Regulations Obtaining disaggregated student information and interpreting policy Family Educational Rights and Privacy Act Department of Agriculture controls Free and Reduced Lunch Information Overbay, A., Grable, L.L., & Vasu, E.S. (2006). Scientifically-based research: Postcards from the edge. Journal of Technology and Teacher Education (JTATE), 14(3), 623-632. Roadmap to Replicability SERVE Center at the University of North Carolina-Greensboro LANCET Roadmap to Replicability Inferred Insights into Capacity Building for Project Evaluation: Lessons Learned from the IMPACT Schools The SERVE Center at UNCG Elizabeth Byrom Jenifer Corn Lessons Learned Lessons learned are derived from a content analysis of qualitative data from focus groups and individual interviews with educators in the IMPACT schools. Framework for Capacity Building 1. Engaging Moral Purpose Engaging teachers’ beliefs, the need or motivation to undertake formative project evaluation (Fullan, 2005) Foundation Drivers for 2. Understanding the Change Process Change in Understanding the change process to engender ownership of evaluation work (Fullan, 2005; Hall & Schools (Fullan, Hord, 1984; Horsley & Loucks-Horsley, 1998; Rogers, 1995; Waters, Marzano, & McNulty, 2003) 2005) The desired change is the adoption of the 3. Building Capacity A. Knowledge, Skills, and Attitudes of Individuals formative Collective and ongoing (Guskey, 1986, 2000) project policies, strategies, evaluation resources, and other practices. actions to increase B. Resources – infrastructure, tools, people, money, and time needed to organizational power to adopt the innovation. implement project evaluation Shared Identity C. Professional Community (Newmann, King, & Motivation to work (Wenger, McDermott, & Snyder, 2002) Young, 2000, as cited together on in Fullan, 2005, p. 40) evaluation (Fullan, D. Program Coherence 2005) (Newmann, Smith, Allensworth, & Bryk, 2001) E. Shared Leadership (Lambert, 2002) Lesson: Project evaluation is a complicated process requiring cooperation among multiple people; it is important that everyone involved speak the same language. Hint for evaluation capacity builders… Help project management and/or project evaluation teams establish a glossary of evaluation terms that will be used for their project. It’s more important for evaluation teams to use the same definitions than it is for them to use the ―right‖ definitions. Lesson: In order to build capacity for evaluation, the purpose or purposes of any evaluation effort must be meaningful, explicit, and understood by everyone involved. It helps tremendously if everyone involved believes in the purpose of the evaluation. Hint for evaluation capacity builders… Because purposes for an evaluation may differ at various levels (SEA, LEA, school, IHE), it’s important to clarify the different purposes. Make sure that everyone participating in the evaluation understands each organization’s purposes, roles, and responsibilities. Lesson: Learning how to evaluate a project requires change, and change takes time and energy. Change, cont’d … Evaluations can change not only projects, but also the people implementing the projects. Hint for evaluation capacity builders… Help educators understand that they are going through a change process. From time to time, help them reflect on where they are in the process. Show project leaders how they can use already-dedicated time when asking teachers to participate in evaluation efforts. Hint for evaluation capacity builders… Understand and prioritize the changes being asked of education project participants by recognizing that some changes are harder than others. Lesson: Some specific knowledge and skills will help make project participants’ evaluation efforts more valuable, effective, and efficient. Hints for evaluation capacity builders… Actively teach educators how to collect, analyze, and interpret data. Help educators formalize informal data and evaluation practices. Show teachers how to use technology to access evaluation data previously not readily available. Hints for evaluation capacity builders… Educators who are inexperienced with project evaluation tend to collect the wrong data or too much data. Show them how to select and use data sources that will be the most meaningful for their projects. Hints for evaluation capacity builders… Find out what data educators are already collecting, and if appropriate and feasible, show them how they might use the data for their project evaluation. Hints for evaluation capacity builders… Don’t be surprised if some project stakeholders are reluctant to provide necessary data. This can happen especially when stakeholders do not see value in the evaluation. Hints for evaluation capacity builders… Help educators learn to provide feedback to stakeholders, showing the results and findings of the data collected. Hints for evaluation capacity builders… Don’t be surprised if administrators and teachers ―streamline‖ data collection procedures or instruments. Don’t be surprised if teachers use their new evaluation knowledge and skills in their own teaching. Lesson: Success of a project evaluation – and likely of the project itself – depends on participants sharing a sense of identity around the effort. Identity cont’d… Leadership of project evaluation might come from unexpected individuals, but regardless of where it comes from, leadership is most effective when shared. Hint for evaluation capacity builders… Help educators develop a plan for actively sharing their project and evaluation plans, activities, and results with stakeholders. Hint for evaluation capacity builders… Help project participants and those who are evaluating the project reach a consensus understanding of ―how the project is supposed to work.‖ Hint for evaluation capacity builders… If logic mapping is considered worthwhile, show educators how to use them early in the project planning process. Allow enough flexibility for teams to illustrate their actual understanding of how their project works, i.e., don’t be rigid about their using a particular logic map design. Lesson: The leadership, shared understandings, and sense of community required for effective project evaluation are heavily dependent on good communication. Hint for evaluation capacity builders… Help educators develop a plan for communication among everyone involved, such that communication is early, often, and in ways that support their efforts. NCDPI Roadmap to Replicibility IMPACT Products SBE Future-Ready Agenda Future-Ready Classrooms In compliance with federal laws, N C Public Schools administers all state-operated educational programs, employment activities and admissions without discrimination because of race, religion, national or ethnic origin, color, age, military service, disability, or gender, except where exemption is appropriate and allowed by law.
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