Investigating Virtual Learning Environments
Effective Years: 2015-2021
The multi-year project will study 50 flipped, hybrid, and online courses offered in the three major STEM Schools at the University of California, Irvine (UCI). Higher education institutions are increasing the number of courses they offer that use elements of virtual instruction in the belief that these courses will lead to better learning, lower costs, greater access, and higher graduation rates. However, recent meta-analyses of virtual learning in higher education all conclude that there is a dearth of rigorous research on the topic. The study will assist higher education administrators, instructors, and course designers to make effective decisions in planning the kinds of virtual learning environments that can best meet the needs of undergraduate STEM students, especially in the vital first two years of college. A major focus of the study will be the impact of virtual learning environments on underrepresented minorities, first-generation college students, students of low-socioeconomic status backgrounds, and women. The research will provide some of the best evidence to date about the impact of higher education virtual environments on learning outcomes, attitudes toward STEM, and persistence in STEM majors. The proposed project will include 50 separate studies of STEM instruction at UCI. The majority will employ random assignment of students to investigate the comparative impacts of virtual vs. traditional learning with the same instructor. Experimental and quasi-experimental techniques will be used to compare the impact of virtual courses compared to traditional courses taught by the same instructor on students? attitudes toward STEM study, learning outcomes, and success and persistence in future STEM courses. Quantitative and qualitative indicators of instructional practices and student performance and engagement will be collected to compare and describe practices across course formats and then distilled into recommended best practices. Statistical data mining techniques, including sequence modeling, clustering, text mining, matrix factorization, and high-dimensional predictive modeling will be used on a rich set of institutional data, self-reported survey data, engagement data (logins, video watching, participation in online forums), and outcome data to extract and analyze information about student learning behaviors and their relationship to learning outcomes. The instruments and designs used in the study, including observation protocols, surveys, interview protocols, and cutting-edge methodological approaches, will allow future researchers to replicate and build on these analyses, thereby contributing to the broader understanding of virtual learning environments. The project, supported through the EHR Core Research (ECR) program of fundamental research in STEM, will contribute important research findings regarding STEM learning, learning environments, and broadening participation in STEM, which are important priorities of the ECR program.
38 Publications Related to This Project:
- Increasing Success in Higher Education: The Relationships of Online Course Taking with College Completion and Time-to-Degree
- Mining Big Data in Education: Affordances and Challenges
- Profiles of Instructor Responses to Emergency Distance Learning
- Increasing Interpersonal Interactions in an Online Course: Does Increased Instructor Email Activity and Voluntary Meeting Time in a Physical Classroom Facilitate Student Learning?
- Exploring the Relationship Between Emergent Sociocognitive Roles, Collaborative Problem-Solving Skills, and Outcomes: A Group Communication Analysis
- Salient Syllabi: Examining Design Characteristics of Science Online Courses in Higher Education
- Cross-National Comparison of Gender Differences in the Enrollment in and Completion of Science, Technology, Engineering, and Mathematics Massive Open Online Courses
- How Do Students Study in STEM Courses? Findings from a Light-Touch Intervention and Its Relevance for Underrepresented Students
- The Benefits and Caveats of Using Clickstream Data to Understand Student Self-Regulatory Behaviors: Opening the Black Box of Learning Processes
- Catalyzing Equity in STEM Teams: Harnessing Generative AI for Inclusion and Diversity
- It's not that You Said It, It's How You Said It: Exploring the Linguistic Mechanisms Underlying Values Affirmation Interventions at Scale
- Do Spacing and Self-Testing Predict Learning Outcomes?
- Automating Data Science
- Using Clickstream Data Mining Techniques to Understand and Support First-Generation College Students in an Online Chemistry Course
- Interpretable Models Do not Compromise Accuracy or Fairness in Predicting College Success
- Utilizing Learning Analytics to Map Students' Self-Reported Study Strategies to Click Behaviors in STEM Courses
- Representing and Predicting Student Navigational Pathways in Online College Courses
- Detecting Changes in Student Behavior from Clickstream Data
- Getting Academically Underprepared Students Ready Through College Developmental Education: Does the Course Delivery Format Matter?
- "I Just Didn't Feel Like a Student Anymore:" Student Responses to Emergency Distance Learning
- Equity in Online Learning
- Improving College Student Success in Organic Chemistry: Impact of an Online Preparatory Course
- We're Looking Good: Social Exchange and Regulation Temporality in Collaborative Design
- The Effects of Flipped Instruction on Out-of-Class Study Time, Exam Performance, and Student Perceptions
- Modality Motivation: Selection Effects and Motivational Differences in Students Who Choose to Take Courses Online
- Using Clickstream Data to Measure, Understand, and Support Self-Regulated Learning in Online Courses
- Effects of Course Modality in Summer Session: Enrollment Patterns and Student Performance in Face-to-Face and Online Classes
- Data on Online and Face-to-Face Course Enrollments in a Public Research University During Summer Terms
- Can Student-Facing Analytics Improve Online Students' Effort and Success by Affecting How They Explain the Cause of Past Performance?
- The Different Relationships Between Engagement and Outcomes Across Participant Subgroups in Massive Open Online Courses
- Impact of Partially Flipped Instruction on Immediate and Subsequent Course Performance in a Large Undergraduate Chemistry Course
- Project-Based Engineering Learning in College: Associations with Self-Efficacy, Effort Regulation, Interest, Skills, and Performance
- Student Spacing and Self-Testing Strategies and Their Associations with Learning in an Upper Division Microbiology Course
- Exploring How Enrolling in an Online Organic Chemistry Preparation Course Relates to Students' Self-Efficacy
- Does Inducing Students to Schedule Lecture Watching in Online Classes Improve Their Academic Performance? An Experimental Analysis of a Time Management Intervention
- The Motivational System of Task Values and Anticipated Emotions in Daily Academic Behavior
- LIWCS the Same, not the Same: Gendered Linguistic Signals of Performance and Experience in Online STEM Courses
- Increasing Success in College: Examining the Impact of a Project-Based Introductory Engineering Course
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