MOOCs with a Purpose: Turning Learners into Researchers through Crowdsourced Design Analysis

Towards ‘MOOCs with a Purpose’: Crowdsourcing and Analysing Scalable Design Solutions with MOOC Learners

2017-01-01
Peter van Rosmalen, Julia Kasch, Marco Kalz, Olga Firssova, Francis Brouns
Summary
Problem
Method
Results
Takeaways
Abstract

This paper introduces "MOOCs with a Purpose," a framework that transforms MOOC final assignments into crowdsourced research tasks. Learners apply a specialized analytical framework—evaluating constructive alignment, task complexity, interaction, and formative feedback—to analyze other MOOCs, thereby generating scalable research data for designers while fostering deep learning for students.

TL;DR

Is it possible to solve the scalability crisis in education while simultaneously conducting global research? This paper presents "MOOCs with a Purpose," a dual-benefit strategy where students' final assignments involve analyzing other online courses using a rigorous educational framework. The result is a win-win: students gain deep meta-cognitive insights into instructional design, while researchers receive a "crowdsourced" dataset of global educational best practices.

Problem & Motivation: The Scalability Gap

The astronomical growth of MOOCs—reaching 58 million learners by 2016—has highlighted a troubling trend: most courses default to "Low-Stakes" design. We see an abundance of video lectures and multiple-choice questions (MCQs) because they scale easily, but these methods rarely support complex skill acquisition.

The authors argue that we need a way to identify best practices at scale without requiring a massive, expensive team of expert auditors. The research intuition here is elegant: Why not use the students themselves? Since many MOOC participants are well-educated professionals (teachers, researchers), they represent an untapped resource for "Citizen Science" in education.

Methodology: The Four Pillars of Scalable Design

The core of the study is a specialized framework designed to detect Educational Scalability. Rather than looking at administrative metrics (like staff-to-student ratios), the framework focuses on four critical instructional components:

  1. Constructive Alignment: Ensuring learning goals, activities, and assessments are logically linked.
  2. Task Complexity: Moving beyond rote memorization to real-world application (using Miller’s classification).
  3. Interaction: Mapping Student-Student (S-S), Student-Teacher (S-T), and Student-Content (S-C) engagement.
  4. Formative Feedback: Identifying how students receive guidance during the learning process.

MOOC Analysis Framework Principles (Note: Users are encouraged to refer to the original paper's survey structure which translates these pillars into 64 targeted questions)

Experiments & Results: Crowdsourcing in Action

The study was conducted within a MOOC titled "Assessment for Learning in Practice." Learners were tasked with selecting a "Unit of Learning" (UoL) from any other MOOC and auditing it using the framework.

Key Findings:

  • The Content-Interaction Bias: Crowdsourced data confirmed that most MOOCs are heavily weighted toward Student-Content (S-C) interaction, with Student-Teacher interaction being the rarest.
  • Alignment Failure: In nearly half of the analyzed cases (5 out of 11), there was a clear disconnect between the stated learning goals and the actual activities provided.
  • The "Gold" in the Crowd: Participants successfully identified high-complexity gems, such as courses requiring students to share photos of local soil crusting or collaborate on mind-maps—practices that offer high educational value but are often missed by automated data mining.

Experimental Results: Interaction and Alignment Distribution (Note: This chart would visualize the prevalence of different interaction types and alignment levels discovered by the students)

Critical Analysis & Conclusion

Takeaway

The paper proves that a "research assignment" can be a valid pedagogical tool. It moves the final project from a "disposable assignment" to a "renewable assignment" that contributes to the broader scientific community.

Limitations & Future Work

The primary hurdle remains attrition. While the quality of the 11 completed audits was high, the "funnel" from lesson views to assignment submission was steep (199 views to 11 submissions). To achieve true statistical power, future implementations must find ways to increase completion rates, perhaps by refining the length of the 64-question survey, which some students found taxing.

Looking forward, this methodology paves the way for a global, living database of MOOC design patterns, curated by the people who know them best: the learners themselves.

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Contents
MOOCs with a Purpose: Turning Learners into Researchers through Crowdsourced Design Analysis
1. TL;DR
2. Problem & Motivation: The Scalability Gap
3. Methodology: The Four Pillars of Scalable Design
4. Experiments & Results: Crowdsourcing in Action
4.1. Key Findings:
5. Critical Analysis & Conclusion
5.1. Takeaway
5.2. Limitations & Future Work