Navigating the Research

Start with Video 1 to see the key findings, then explore the supporting videos based on your interests.

For complete understanding of our conclusions: Watch Video 1 in combination with Video 5, which provides detailed statistical methodology showing exactly how we reached our findings.

Video 2 addresses fundamental questions about research validity. Video 3 explains the measurement framework. Video 4 examines faculty-specific achievement gaps and motivates the urgent need for wellbeing interventions. Videos 5 & 6 cover statistical methodology - choose based on your technical interest level. Video 7 provides implementation guidance.

Each video provides valuable context to enhance your understanding of the research findings.

A comprehensive academic publication detailing these findings is currently in preparation and will be made available in the final section upon completion.

1Science Faculty Student Success: Comprehensive Wellbeing Analysis

This presentation reveals the findings from our comprehensive wellbeing analysis of Science Faculty student success at Stellenbosch University - one of the most extensive studies of its kind. We tracked 553 Science students longitudinally, measuring 48 comprehensive wellbeing factors at enrollment and following their academic journeys for three years through a rigorous analytical framework involving 4,224 statistical comparisons across 88 demographic scenarios. Our analysis reveals that wellbeing factors systematically distinguish Science student success pathways in predictable, reliable ways, with 87 factors surviving rigorous False Discovery Rate correction. Physical health, social support, and psychological resources consistently emerge as critical across multiple analyses, while demographics matter significantly - different groups require fundamentally different approaches rather than one-size-fits-all interventions. Male students showed the most dramatic patterns with 17 significant factors surviving rigorous correction, representing the highest risk profile of any demographic group. The multi-pathway analysis reveals nuanced intervention opportunities that traditional binary success-failure approaches would miss entirely, providing a practical roadmap based on comprehensive analysis of real student outcomes for improving Science student success rates through evidence-based wellbeing interventions.

Focus: Research findings and evidence-based intervention targets for Science students

This presentation reveals how physical health, social support, psychological resources, and life satisfaction factors predict academic outcomes across different demographic groups in the Science faculty, providing practical guidance for targeted student support interventions based on 553 students tracked over three years with 87 rigorously validated intervention targets.

2The Scientific Foundation for Predictive Student Success

Can wellbeing measures taken at university entry really predict academic outcomes years later?

This presentation addresses a fundamental question underlying all student success research: the temporal stability of non-academic measures. Using extensive longitudinal research evidence, we examine whether the 49 wellbeing, mindset, and behavioral factors in our SUBSIFY framework demonstrate sufficient stability over time to enable meaningful long-term prediction. Key findings reveal that psychological constructs show exceptional stability, wellbeing measures demonstrate strong temporal consistency, and even behavioral measures maintain meaningful stability over multi-year periods. Importantly, these patterns persist naturally but remain malleable through targeted intervention. Without temporal stability, early identification would be impossible—with it, we can confidently predict student trajectories and intervene early with evidence-based support to change outcomes before problems emerge.

Focus: Research validity and temporal stability of predictive measures

This presentation establishes the scientific foundation for using early wellbeing measures to predict long-term academic outcomes, addressing fundamental questions about research validity and intervention timing.

3Understanding SUBSIFY: The Measures Behind Our Analysis

The results presented on this page are based on data collected through SUBSIFY (Stellenbosch University Baseline Survey for Incoming First-Years), a comprehensive assessment framework that measures 49 validated factors across four major categories: Flourishing Index Components (20 factors), Wellness Habits (14 factors), EPOCH Well-being Measures (6 factors), and Mindset Measures (9 factors). To better understand what these wellbeing factors represent and how they are measured, watch the introductory video below, which provides a detailed overview of each category and the specific measures within SUBSIFY. This framework goes beyond traditional academic predictors to capture the broader range of non-academic factors that may influence student success, providing the foundation for the faculty-specific analyses presented here.

Focus: Measurement framework and wellbeing assessment tools

This video explains the comprehensive SUBSIFY survey instrument that captures 49 validated wellbeing factors, providing the foundation for understanding how student success predictors are measured and categorized.

4Science Achievement Gaps: Evidence-Based Analysis and Solutions

This video presents a comprehensive examination of significant achievement gaps within the Faculty of Science, revealing stark disparities that demand immediate attention and action. Through rigorous analysis of 553 students from our SUBSIFY survey tracked longitudinally, we document a 45.5 percentage point gap between the highest and lowest performing academic preparation groups and a 39.9 percentage point racial achievement gap. The presentation systematically examines how academic preparation, race, mathematics readiness, gender, socioeconomic status, and generational status create distinct pathways to success or failure. Academic preparation emerges as the most critical predictor, with DCM success rates ranging from 63.6% for students with Grade 12 averages above 90% to only 18.2% for those below 70%. Racial disparities are equally concerning, with White students achieving 53.7% success rates compared to 13.8% for Indian students and 21.4% for Black African students. Moving beyond simply documenting these disparities, the video demonstrates how our wellbeing research offers evidence-based pathways to closing these gaps through targeted interventions that address modifiable factors like physical health, social support, and psychological resources. With 87 statistically validated intervention targets identified across different demographic groups, this analysis provides both sobering documentation of existing inequalities and actionable solutions for creating more equitable pathways to student success in Science education.

Focus: Faculty-specific achievement gaps and targeted intervention strategies

This analysis reveals significant disparities in Science student success rates across demographic groups, with academic preparation showing the largest gaps (45.5 percentage points) and substantial racial disparities (39.9 percentage points). The presentation provides evidence-based guidance for addressing inequalities through wellbeing-focused interventions tailored to different populations while establishing universal support foundations for all Science students.

5Social Support as Universal Predictor: Complete Statistical Methodology

This video demonstrates the exact statistical procedures we followed throughout our entire study, making it essential viewing for readers who want to understand how we arrived at our main findings or need clarification on our methodological approach. Through an analysis of 4,224 individual t-tests across 88 demographic scenarios involving 553 Science students tracked from enrollment to graduation, we reveal how advanced statistical techniques—including False Discovery Rate correction and effect size analysis—distinguish genuine predictive factors from statistical noise. Using social support as our primary example, the presentation walks viewers through the complete analytical process from raw survey data to evidence-based intervention recommendations, showcasing how small but consistent effects (Cohen's d = 0.28-0.47) translate into meaningful population-level improvements in Science student outcomes. This rigorous methodology established social support as a Priority #1 universal intervention target for Science students and serves as a template for identifying reliable wellbeing predictors that can guide institutional decision-making with statistical confidence. The presentation demonstrates how access to supportive relationships consistently predicts Science student success across diverse demographic groups, with particular strength among male students, first-generation students, and those with moderate academic preparation.

Focus: Detailed statistical methodology using social support as primary example

This comprehensive methodological walkthrough uses social support as a concrete example to demonstrate our complete analytical framework, from raw data to intervention recommendations, showing how access to supportive relationships consistently predicts Science student success and provides a foundation for peer mentoring, study groups, and collaborative learning initiatives.

6Understanding Our Statistical Methodology

To ensure transparency and scientific rigor in our student success research, we have developed a comprehensive statistical framework that examines wellbeing factors across diverse demographic groups and student pathways. The analysis you see reported for this faculty employs sophisticated multiple comparison corrections, effect size calculations, and variance testing to distinguish genuine predictive factors from statistical noise. This methodology video provides detailed insight into the four-step analytical process we use, explaining techniques such as Levene's test for variance assumptions, False Discovery Rate correction using the Benjamini-Hochberg procedure, and Cohen's d effect size interpretation. Understanding these statistical foundations is crucial for interpreting our findings correctly - particularly why we report both uncorrected and FDR-corrected results, and how our three-pathway student model (degree completers, unsuccessful persisters, and leavers) provides more nuanced insights than traditional binary success/failure approaches. The rigorous application of these methods across thousands of statistical tests ensures that the intervention targets we identify represent reliable, evidence-based opportunities for supporting student success rather than chance findings.

Focus: Statistical rigor and analytical framework

This technical presentation explains the sophisticated statistical methods used to ensure reliable results, including multiple comparison corrections, effect size calculations, and the multi-pathway analytical approach that distinguishes this research.

7Understanding the Research: Q&A on Methods and Implementation

Note: This video was originally created for our EMS faculty analysis, but all methodological questions and implementation guidance apply equally to Science students. Please disregard any specific EMS references, as the underlying statistical approaches, intervention principles, and implementation strategies are identical across both faculties.

This video addresses the most frequently asked questions about our comprehensive wellbeing analysis of student success patterns. The presentation covers critical methodological questions including why we used False Discovery Rate correction to ensure reliable results, how our 4,224 statistical comparisons were generated across demographic scenarios, and what effect sizes mean for practical intervention planning. It also addresses implementation questions such as which interventions to prioritize first, cost-effective funding strategies, and how findings might transfer to other faculties. Most importantly, the video provides an honest assessment of study limitations, particularly the distinction between correlation and causation, and outlines the intervention research needed to prove that improving wellbeing factors actually causes better student outcomes. Whether you're interested in the statistical rigor behind our findings or practical guidance for implementing evidence-based student support programs, this Q&A provides essential context for understanding how these research results can inform institutional decision-making.

Focus: Implementation guidance and methodological transparency

This Q&A session addresses practical questions about implementing evidence-based interventions, study limitations, funding strategies, and the critical distinction between correlation and causation in student success research. The methodological discussions and implementation principles apply directly to Science faculty contexts.

Academic Publications

We are currently developing academic paper(s) that will unpack this research, its results, and implications in detail. These publications will provide comprehensive scholarly analysis of the wellbeing factors that predict student success in the Faculty of Science. The papers will be made available on this page once they become accessible.