THE ABSOLUTE TRUTH STEM PLAY-BOX
1. Basic Information
Method Title: The Absolute Truth STEM Play-Box / Manual for Creating a STEM Game
Author / Organisation: Centrul de Resurse și Consultanță în Educație (CRCE), within the ScieCitizens 2.0 Erasmus+ project consortium.
Project website: https://www.crceromania.ro/sciecitizens-2-0/
Country: Romania, within a transnational Erasmus+ adult-education partnership.
Theme / Topic: Digital and innovative teaching approaches; civic engagement and active citizenship; inclusion of disadvantaged groups; sustainability (when adapted to local community and environmental challenges).
Keywords / Tags: STEM game, citizen science, game-based learning, play-box, critical thinking, problem-solving, community engagement, active citizenship, inclusive education, digital tools, STEAM, sustainability
2. Overview
Short Description: This method presents a structured approach for creating and facilitating an educational STEM game, illustrated through the ScieCitizens 2.0 Play-Box ‘The Absolute Truth’. It combines game-based learning, citizen-science principles, collaborative problem-solving, and hands-on inquiry to help educators and facilitators engage adult learners and communities in STEM topics through an accessible, narrative-based format.
Purpose of the Method: To support educators, trainers, community facilitators, and science communicators in designing or adapting an inclusive STEM game that develops critical thinking, scientific literacy, collaboration, and community engagement. The method also aims to connect STEM learning with real-life local issues, making science more relevant, participatory, and action-oriented.
Learning Outcomes (Skills / Knowledge / Attitudes): Skills: designing a simple STEM game or play-box; defining educational objectives; facilitating collaborative learning; integrating problem-solving, puzzles, and game mechanics; collecting feedback and refining the activity; linking STEM content to real community challenges. Knowledge: understanding the key characteristics of STEM games; knowing the stages of game development; recognising how accessibility, inclusion, and citizen-science can be embedded in educational design; understanding how a facilitated mystery game can support science learning. Attitudes: openness to experimentation; curiosity; collaborative mindset; confidence in using innovative educational tools; commitment to inclusive participation and community-oriented learning.
3. Target Group
Target Group: Adult educators, trainers, facilitators, science communicators, community leaders, museum or library educators, youth workers working with adults, and adult learners interested in STEM, citizen science, or innovative learning methods.
Age Range: Primarily 18+, although the method can be simplified for mixed-age educational settings.
Group Size: Flexible. The featured Play-Box works well with 1–5 players and 1 facilitator, while the wider method can be adapted for small groups, workshops, clubs, classrooms or community events.
Required Prior Knowledge: No advanced game-design expertise is required. Basic facilitation skills, confidence in managing group activities, and an interest in STEM or inquiry-based learning are helpful. The method is suitable for beginners because the manual explains both the design logic and the practical running of the game.
4. Practical Details
Duration: The featured ‘The Absolute Truth’ Play-Box lasts about 60 minutes, plus time for set-up, introduction, and debriefing. If the full method is used to design a new game from scratch, it can be developed over several workshop sessions or as a short project cycle including concept design, prototyping, piloting, and revision.
Setting (online / offline / hybrid): Mainly offline or hybrid. The Play-Box is a physical, facilitator-led activity supported by digital elements such as online files, internet access, or optional multimedia resources. The design method itself can also be taught in blended learning settings.
Group Work / Individual: Primarily collaborative, with team-based puzzle-solving and guided facilitation. Individual reflection and note-taking can be added during the debriefing stage.
Materials / Tools Needed: Printed game cards; facilitator booklet; player rules; paper and pens; timer or mobile phone; optional flashlight; clue objects/figurines/keys/chest or adapted props; internet-enabled phone; printable or digital templates; feedback collection tool; and, when designing a new version, materials for prototyping such as paper, markers, scissors, and sticky notes.
5. Method Description (Step-by-Step)
Step 1: Define the purpose, target group, and topic. Select the STEM or STEAM theme, identify the age/knowledge level of participants, and decide what scientific, technological, mathematical, or engineering concepts the game should address. At this stage, the manual recommends linking the activity to real local issues and community interests so that the learning experience has relevance beyond the game itself.
Step 2: Design the concept and structure of the game. Choose the format (for example card game, escape-room style, board game, or hybrid play-box), create the narrative, set the roles of players and facilitator, define objectives, and build the mechanics. In ‘The Absolute Truth’, players act as detectives investigating the disappearance of a journalist, solving sequential puzzles and clues related to STEM-based thinking.
Step 3: Develop materials, test, and refine. Prepare the cards, clues, printed resources, facilitator guidance, and any physical or digital components. Pilot the game with a small group, collect structured feedback, observe where players struggle or disengage, and revise instructions, sequencing, accessibility, and difficulty so the activity becomes clearer and more inclusive. For beginners, simplify the activity by using fewer clues or tasks, shorter instructions, visual prompts, or additional facilitator guidance. The difficulty of the tasks can be adjusted to the participants’ knowledge and experience.
Step 4: Facilitate the session and debrief the learning. Run the game with one facilitator guiding the process, confirming solutions, and supporting players when needed. Encourage teamwork, note-taking, and distributed problem-solving. After the session, conduct a debrief focused on what participants learned, how they collaborated, how the game mechanics influenced engagement, and how the experience connects to science, society, and active citizenship. Allow more time for discussion and reflection after the activity when needed.
6. Pedagogical Approach
Methods used: Game-based learning; STEM/STEAM education; citizen-science approach; experiential learning; problem-based learning; collaborative learning; facilitator-guided inquiry; storytelling; puzzle-based learning; reflective debriefing.
Why this approach is effective: The approach is effective because it transforms abstract STEM content into a concrete, memorable, and collaborative experience. It increases engagement through narrative and challenge, supports active problem-solving instead of passive reception, and creates space for discussion, teamwork, and application. The citizen-science dimension strengthens relevance by connecting learning to local issues and by positioning participants not only as learners, but also as potential contributors to community knowledge and solutions.
7. Inclusion & Accessibility
How inclusion is ensured: Inclusion is supported by allowing adaptation of the game format, difficulty level, instructions, materials, and pacing to the characteristics of the group. The manual explicitly recommends accessibility and inclusivity measures such as alternative formats, adaptation to different learning levels, and translation into multiple languages. The facilitator can also distribute roles in ways that allow different strengths to emerge during teamwork.
Adaptations for disadvantaged groups: For participants with lower literacy or less confidence in STEM, simplify instructions, reduce the number of simultaneous clues, and provide visual prompts or oral guidance. The difficulty of the tasks can be adjusted to the needs and experience of the group. For multilingual groups, translate key materials and use symbols or colour coding. For learners with limited digital access, keep the core activity playable with printed materials. For underrepresented or marginalised groups, adapt themes so they reflect local realities, lived experiences, and community concerns, helping participants feel represented and able to contribute.
8. Sustainability Aspect
Relevance to sustainability: This method can contribute to sustainability when the game challenges are built around environmental and community issues such as pollution, renewable energy, responsible use of resources, or evidence-based local decision-making. It also supports social sustainability by promoting inclusion, participation, collaboration, and lifelong STEM learning in communities.
9. Evaluation & Feedback
Evaluation methods: Observation during gameplay; facilitator notes; oral or written debriefing; short post-activity questionnaires; testing feedback from pilot groups; and review of whether the game achieved its educational and participation goals.
Tools used (self/peer/teacher): Self-assessment during reflection and debriefing; peer discussion on strategies, clues, and teamwork; facilitator assessment based on engagement, collaboration, and task completion; and feedback sheets or short interviews after piloting.
10. Output / Result
Final outcome: A ready-to-use STEM game or Play-Box, or a tested prototype that can be reused and adapted in educational or community settings. Additional outcomes include improved scientific literacy, stronger collaboration and critical-thinking skills, and greater awareness of how STEM can be connected to local challenges and active citizenship.
11. Transferability
How can this method be adapted: The method can be adapted for schools, adult-learning centres, museums, libraries, science clubs, youth and community organisations, or intergenerational settings. It can also be localised by changing the storyline, level of difficulty, language, topic focus, and game materials. Educators may create low-tech versions for resource-limited contexts or hybrid versions that combine printed tasks with online resources, QR codes, or short videos.
12. Additional Resources
Links / files / tools:
- Project website: https://www.crceromania.ro/sciecitizens-2-0/
- Project website (manual reference): www.crceromania.ro/sciecitizens-2-0
- Facilitator booklet: https://www.crceromania.ro/wp-content/uploads/2025/03/Facilitator-booklet-EN.pdf
- Game cards / tasks for players: https://www.crceromania.ro/wp-content/uploads/2025/03/Game-cards-tasks-player-EN.pdf
- Game rules for players: https://www.crceromania.ro/wp-content/uploads/2025/03/Game-rules-for-players-EN.pdf
- Video of the game box: https://www.youtube.com/watch?v=R-xEL61ZQ5s
- Source file used for this CIVIKI adaptation: user-provided PDF ‘Manual for Creating a STEM Game’.