Designing Analog Board Games for STEAM Education: A Task-Based Learning Framework

This article was created after an intimate workshop session was given at the Okinawa STEAM International Conference 2026 held in Naha, Okinawa, Japan. See here for more information: https://jaltpiesig.org/pie-sigs-okinawa-steam-conference/

Designing Analogue Board Games for STEAM Education: A Task-Based Learning Framework

Anthony Brian Gallagher

Faculty of Foreign Language Studies, Meijo University, Nagoya, Japan.

Abstract

Integrating Science, Technology, Engineering, Arts, and Mathematics (STEAM) into higher education requires active, student-centred methodologies that bridge conceptual knowledge with practical execution. This paper presents a Task-Based Learning (TBL) pedagogical framework focused on student-designed analogue board games. By placing students in the role of game designers, the curriculum leverages low-cost physical materials to foster iterative problem-solving, collaborative communication, and creative thinking. We discuss key design mechanics, practical adaptation techniques, and the development of the Student User Experience (SUX). This model demonstrates how analogue game construction provides a scalable, accessible, and high-impact environment for STEAM learning.

Introduction

The integration of STEAM (Science, Technology, Engineering, Arts, and Mathematics) fields in higher education demands pedagogical approaches that go beyond passive information absorption. While digital educational games have gained significant attention, analogue board games offer distinct tactile, social, and immediate feedback advantages without requiring expensive software infrastructure or coding skills.

Using board game construction as a pedagogical task enables students to externalise abstract ideas, test hypotheses through play, and engage in collaborative iteration. Applying a Task-Based Learning (TBL) framework to game design transforms the classroom into a studio where students do not merely consume educational content—they systematically engineer it for others.

Conceptual Framework: Task-Based Learning and STEAM Design

Task-based learning (TBL) shifts the focus of instruction from explicit rule presentation to meaningful task completion. When framed around STEAM topics, game creation serves as an authentic, goal-oriented macro-task comprised of structured sub-tasks:

1. Pre-Task (Analysis & Conceptualisation): Researching core domain concepts (e.g., ecological systems, mechanics, historical timelines) and identifying target game objectives.

2. Task Cycle (Prototyping & Playtesting): Translating abstract rules into functional mechanics, sketching gameboards, and conducting immediate, low-fidelity playtests.

3. Post-Task (Refinement & Analysis): Gathering player feedback, evaluating balance, and reflecting on both the subject-matter accuracy and the user experience.

THE TBL DESIGN CYCLE
[1. Pre-Task]      --> Identify core STEAM concepts & goals
[2. Task Cycle]    --> Prototype board, mechanics, & playtest
[3. Post-Task]     --> Analyze user feedback & iterate design

By working through this cycle, students apply engineering principles 
(iterative design and prototyping), mathematical logic (probability and scoring systems), 
arts (visual design and narrative storytelling), and technical communication.

Core Principles of Student-Designed Games

1. Game Mechanics as Subject Representation

Game mechanics define how players interact with the game world. In an educational game design task, mechanics must map directly to the academic subject matter:

• Resource Management: Represents systems dynamics, such as energy transfer or financial planning.

• Worker Placement: Models operational constraints, time allocation, or algorithmic processes.

• Deck-Building & Drafting: Simulates progressive skill acquisition or chemical compound assembly.

2. Rapid Prototyping with Low-Cost Tools

High-gain educational outcomes do not depend on high-cost technology. Utilising simple materials—cardstock, blank tokens, index cards, and dice—allows students to bypass technical barriers and focus on mechanics and balance. Low-cost materials reduce the cost of failure, encouraging students to discard flawed mechanics and iterate quickly.

3. Developing the Student User Experience (SUX)

A central learning outcome of this framework is cultivating awareness of the Student User Experience (SUX). As student designers transition from players to creators, they must address:

• Clarity of Rules: Can peers understand the core loop without verbal instructions?

• Cognitive Load: Is the information density appropriate for the target audience?

• Engagement & Agency: Do choices feel meaningful, or is the outcome driven entirely by luck?

Pedagogical Implementation & Adaptations

To implement game creation successfully within a standard course unit, instructors can utilise a modular workshop structure adaptable across disciplines:

Phase	Duration	Student Activity	Key Artifact / Deliverable
Phase 1: Deconstruction	45 min	Analyse sample micro-games to identify core mechanics (roll-and-move, tile placement).	Mechanics Matrix
Phase 2: Mapping	45 min	Map subject-matter concepts to chosen mechanics (e.g., target vocabulary or scientific steps).	Game Concept Pitch
Phase 3: Prototyping	90 min	Construct a low-fidelity prototype board using basic paper cutouts and cards.	Playable Paper Prototype
Phase 4: Playtesting	60 min	Peer-test games, record edge cases, and collect SUX feedback forms.	Feedback Log
Phase 5: Iteration	60 min	Modify rules and components based on peer testing results and present the final variant.	Final Game & Rulebook

Adapting Gameplay for Variants and Flexibility

To maximise pedagogical flexibility, students are encouraged to design modular rulesets. Simple techniques to introduce variants include:

• Variable Setup: Modifying board layout or starting resources to increase replayability.

• Cooperative vs. Competitive Modes: Adjusting win conditions so players either work together against a system timer or compete individually.

• Scaffolding Levels: Creating basic rules for novice players and adding advanced modular rules for experienced players.

Discussion and Conclusion

Adopting analogue game creation as a task-based learning activity bridges the gap between theoretical knowledge and practical execution in STEAM education. By focusing on low-cost materials, iterative prototyping, and Student User Experience (SUX), learners take ownership of their education through hands-on design. Future applications include measuring long-term knowledge retention and examining cross-disciplinary language outcomes when these frameworks are implemented in Content and Language Integrated Learning (CLIL) environments.

References

• Willis, J. (1996). A framework for task-based learning. Longman. https://archive.org/details/frameworkfortask0000jane

• Nunan, D. (2004). Task-based language teaching. Cambridge University Press. https://www.scirp.org/reference/referencespapers?referenceid=1776493

• Salen, K., & Zimmerman, E. (2004). Rules of play: Game design fundamentals. MIT Press. https://www.academia.edu/66573283/Rules_of_play_Game_design_fundamentals

• Nicholson, S. (2015). A RECIPE for meaningful gamification. In L. Kärkinen (Ed.), Gamification in education and business (pp. 1-20). Springer.https://www.academia.edu/66573283/Rules_of_play_Game_design_fundamentals