Universal Design Principles Enhance STEM Student Success by Shifting from Deficit to Abundance Models

Category: User-Centred Design · Effect: Strong effect · Year: 2023

Adopting universal design principles and an abundance model in STEM education can significantly improve student retention and success by addressing diverse learning needs rather than focusing on perceived student deficits.

Design Takeaway

Design learning experiences with the assumption of diversity, rather than designing for a hypothetical 'average' student and then trying to remediate those who don't fit.

Why It Matters

This approach moves away from blaming students for attrition and instead focuses on creating inclusive learning environments. By designing curricula and teaching methods that cater to a wide range of abilities and backgrounds from the outset, institutions can foster a more supportive and effective educational experience for all.

Key Finding

Traditional teaching methods often fail diverse students by focusing on their perceived weaknesses. Universal design and abundance models, however, create learning environments that proactively support all students, leading to better outcomes.

Key Findings

Research Evidence

Aim: How can universal design principles and an abundance model of teaching and learning be implemented to improve STEM student success and reduce attrition?

Method: Literature review and theoretical framework development

Procedure: The authors critique the 'deficit model' of teaching and learning, which attributes student failure to individual shortcomings. They then propose the adoption of 'universal design' and an 'abundance model' as alternative frameworks, offering strategies for curriculum design and pedagogical approaches that support diverse learners.

Context: Higher education STEM education

Design Principle

Design for the widest possible range of users from the outset, rather than retrofitting accommodations.

How to Apply

When designing educational materials, platforms, or learning activities, consider multiple modes of representation, expression, and engagement to accommodate different learning styles and abilities.

Limitations

The paper is theoretical and does not present empirical data from a specific design intervention.

Student Guide (IB Design Technology)

Simple Explanation: Instead of assuming students are 'bad at science' and trying to fix them, design science classes that are good for everyone from the start, no matter their background or how they learn best.

Why This Matters: Understanding how to design for diverse users is crucial for creating inclusive and effective products and services, leading to broader adoption and user satisfaction.

Critical Thinking: To what extent can the 'abundance model' be applied to non-educational design contexts, and what are the potential challenges in shifting from a 'deficit' to an 'abundance' mindset in product development?

IA-Ready Paragraph: The principles outlined by Brabazon, Quinton, and Hunter (2023) highlight the critical need to move beyond deficit-based approaches in design. By embracing universal design and abundance models, designers can create solutions that are inherently more inclusive and effective for a wider range of users, thereby reducing potential barriers to adoption and success.

Project Tips

How to Use in IA

Examiner Tips

Independent Variable: Teaching and learning models (deficit vs. universal design/abundance)

Dependent Variable: Student success and attrition rates

Controlled Variables: Curriculum content, academic qualifications of instructors, institutional resources

Strengths

Critical Questions

Extended Essay Application

Source

Universalizing science literacy: How to transcend deficit models of teaching and learning · International Journal on Research in STEM Education · 2023 · 10.33830/ijrse.v5i2.1224