Digital Citizens: Community Problem Solving Through STEM
A Teachers College partnership where students investigated community and environmental problems, then used research, design thinking, data, and technology to prototype responses.
Context
Developed with Teachers College, Columbia University through the TR@TC Global Citizens initiative, this work connected computer science, life science, ELA, and design thinking around real community and environmental questions. Students investigated issues such as noise pollution, green space access, environmental justice, and challenges connected to local parks.
My Role
Curriculum Designer, Site Director, and Instructional Support
I helped design and scaffold the four-week learning experience, connect standards across disciplines, support field-based inquiry and prototyping, coach educators, and coordinate the learning experience with Teachers College faculty and instructional leads.
What We Built
- Four-week interdisciplinary learning sequence
- Field investigation and research activities
- Design thinking routines and prototyping cycles
- Cross-disciplinary curriculum connecting ELA, life science, CS, and CT
- Student presentation and showcase structures
- Rubrics and educator supports
What Learners Did
Students documented local conditions, interviewed people, gathered information, framed problems, generated ideas, and built responses using tools that included sensors, websites, physical computing, VR, 3D mockups, and advocacy materials.
Artifacts
Student work included noise-monitoring concepts, advocacy websites, VR and 3D representations of redesigned spaces, community resource maps, physical prototypes, and public presentations.
Outcome
Students presented their work through community showcases. Participants earned SYEP stipends, some received school credit, educators carried interdisciplinary and computational thinking routines into later instruction, and several projects continued into extended inquiry after the program.
Curriculum Focus Areas
- Computer Science: Computational thinking, data literacy, basic coding, physical computing
- Life Science: Environmental impact, sustainability, local ecosystems
- ELA: Research, inquiry-based writing, persuasive communication
- Design Thinking: Empathize → Define → Ideate → Prototype → Test
Program Flow & Key Learning Phases
Week 1: Community, Context & Environmental Justice
- Observation walks and environmental justice framing
- Site visits and Indigenous lens discussions
- Photo documentation and group norms
Week 2: Research, Interviews & Site Selection
- Interviews, data collection, and site-based focus
- Initial community issue framing and share-outs
Week 3: Prototyping & Computational Problem-Solving
- Students chose low/no/high tech strategies
- Developed working prototypes using sensors, VR, or campaign tools
Week 4: Final Builds, Shark Tank & Presentations
- Peer feedback, final reflections, and public demonstrations
- Presented to partners and connected to city-wide EJ goals
Example Projects
- Noise pollution sensors to map sound data
- Advocacy websites focused on public access to parks
- VR and 3D mockups of future green spaces
- Community resource maps with crowdsourced visuals
Tools & Platforms Used
- micro:bit, MakeCode, Scratch
- Google Docs/Slides, Canva, Padlet
- Solar panels, sensors, VR tools, poster boards
Standards Alignment
- CS4All Blueprint: Algorithms, iteration, decomposition
- ELA Standards: Research, evidence-based writing
- NGSS: Human-environmental impact, inquiry and analysis
Design Thinking in Action
The program leaned heavily on strategies outlined in the IDEO Design Thinking for Educators Toolkit, including:
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Stakeholder Mapping Students identified who was impacted by their chosen community issue and mapped relationships, influence, and potential collaboration.
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Point of View Statements Used to help students turn raw observations into user-centered design questions. This reframing supported student empathy and focus.
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Rapid Prototyping Encouraged students to sketch, build, and test early-stage versions of their ideas using both digital tools and everyday classroom materials.
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Feedback Capture Grids Used during peer critique and presentation prep to structure input in a way that promoted useful revision, iteration, and next steps.
These strategies aligned seamlessly with the program’s inquiry-driven approach and made abstract design processes tangible for students and teachers alike.