🌱 LIVING LAB ONBOARDING GUIDE

📥 Download PDF ← All Guides

🌱 LIVING LAB ONBOARDING GUIDE

Part of the UBEC Core Beneficiary Onboarding Series

This guide is part of a comprehensive onboarding system:

📚 Shared Resources: - Technical Setup: Creating Your Stellar Wallet - Understanding Your Holonic Journey - Support and Resources

🌱 LIVING LAB ONBOARDING GUIDE

Who This Guide is For

You are a living lab if you: - Run an educational institution (school, university) or community learning organization - Have access to land suitable for diverse ecosystems (minimum ~1,000 square meters) - Are committed to hands-on environmental education - Want to integrate IoT technology with nature observation - Are interested in citizen science participation - Can engage students/participants in ongoing environmental monitoring - Have or can develop technical capacity for sensor deployment

Living Lab Sites Might Include: - Waldorf/anthroposophical schools with gardens - University field stations or research sites - Community education centers with outdoor spaces - Bioregional monitoring and research sites - Schools with food forests or permaculture gardens - Environmental learning centers - Indigenous knowledge centers with land

Phase 1: Before You Apply

Step 1: Assess Your Readiness

Educational Infrastructure: - [ ] Do we have an educational mission focused on hands-on environmental learning? - [ ] Do we have educators/staff ready to integrate living lab into curriculum? - [ ] Can we engage students/participants regularly (daily or weekly)? - [ ] Are we committed to long-term environmental monitoring? - [ ] Do we value both phenomenological observation and digital sensing?

Physical Site: - [ ] Do we have at least 1,000 square meters of suitable land? - [ ] Does our site include diverse ecosystems (gardens, food forests, wetlands, etc.)? - [ ] Is the site accessible to students and community members? - [ ] Can we create safe learning spaces outdoors? - [ ] Do we have or can we create ecological diversity?

Technical Capacity: - [ ] Do we have WiFi connectivity or can we establish it? - [ ] Do we have staff or partners with technical skills? - [ ] Can we maintain IoT equipment over time? - [ ] Are we willing to learn about environmental sensors? - [ ] Can we manage data collection and quality?

Citizen Science Commitment: - [ ] Do we understand scientific observation principles? - [ ] Are we committed to data quality and consistency? - [ ] Are we willing to share data publicly? - [ ] Do we have research ethics protocols? - [ ] Can we contribute to larger environmental monitoring networks?

Community Integration: - [ ] Can we provide some level of public access to our site? - [ ] Are we willing to partner with local environmental groups? - [ ] Can we contribute to local food sovereignty? - [ ] Will we share knowledge and findings with the community? - [ ] Can we participate in bioregional networks?

Self-Assessment: - Why do we want to create a living lab? - How will this enhance our educational mission? - What unique ecosystems or learning opportunities do we offer? - What challenges might we face? - How will we sustain this over years?

Step 2: Understand What You'll Receive

Initial Setup Grant: - Token allocation: 5,000 - 25,000 UBEC - Covers: Equipment, installation, network setup, initial training

Equipment Provided: - SenseBox MCU or equivalent IoT environmental station - Multiple sensors measuring: - Air temperature and humidity - Soil moisture and temperature - Atmospheric pressure - Light intensity - UV radiation - WiFi signal metrics - Installation materials and mounting hardware - Technical documentation

Ongoing Data Contributions: - Earn ~7.14 UBECrc per sensor reading - With readings every 15 minutes: ~2,880 readings/day - Approximately 20,000 UBECrc per day per device - Tokens automatically distributed to your Stellar wallet

Educational Resources: - Age-appropriate curriculum materials - Student workbooks and teacher guides - Phenomenological observation frameworks - Data literacy educational modules - Blockchain and reciprocal economics lessons - Multi-language resources (German, English, Polish, others)

Technical Support: - Installation assistance (remote or on-site) - Training for educators and technical staff - Ongoing troubleshooting support - Equipment maintenance guidance - Data platform access and training

Network Participation: - Connection to other living labs - Peer learning opportunities - Research collaboration possibilities - Contribution to citizen science networks - Data sharing through OpenSenseMap or equivalent

Step 3: Understand Your Responsibilities

Equipment Maintenance: - Keep sensors clean and calibrated - Ensure consistent WiFi connectivity - Monitor system uptime (target >95%) - Report and address technical issues promptly - Replace batteries or components as needed

Educational Integration: - Integrate living lab into curriculum - Engage students in regular observation - Teach both sensory and digital data collection - Develop age-appropriate learning activities - Document student learning outcomes

Data Quality: - Maintain data quality scores (target >90/100) - Ensure consistent 15-minute transmission intervals - Monitor for sensor malfunctions - Validate data accuracy periodically - Report data quality issues

Community Engagement: - Provide some level of public access to data - Host community learning events periodically - Share findings with local partners - Participate in bioregional networks - Contribute to public environmental awareness

Reporting: - Quarterly progress reports - System performance metrics - Educational integration updates - Student engagement documentation - Impact stories and photos

Phase 2: Preparing Your Application

Step 1: Site Documentation

Physical Site Information: - Total land area and usable space - Current ecosystems present: - [ ] Food gardens/agricultural areas - [ ] Food forests/agroforestry - [ ] Wildflower meadows - [ ] Wetlands or water features - [ ] Composting areas - [ ] Indigenous/native plant zones - [ ] Outdoor classroom spaces - Site photos from multiple angles - Site map or sketch showing key areas - Sunlight, shade, and microclimate notes - Water access and drainage - Current and planned biodiversity

Sensor Placement Plan: - Proposed location for sensor station - Access to power (if needed) or solar setup - WiFi signal strength in proposed location - Protection from weather and tampering - Visibility for educational purposes - Multiple measurement zone considerations

Step 2: Educational Integration Plan

Current Educational Programs: - What do you teach now about environment/nature? - How many students/participants annually? - Age ranges and developmental levels - Current outdoor education practices - Science curriculum overview

Living Lab Integration: - How will you integrate sensor data into lessons? - Phenomenological observation activities planned - Data literacy skills to develop - Blockchain/economics concepts to teach - Cross-curricular connections - Age-appropriate progression (younger to older students)

Educator Readiness: - Who will lead living lab integration? - What training do educators need? - Time allocation for living lab activities - Professional development plans - Support structures for teachers

Sample Lesson Plans: Include 2-3 draft lesson plans showing: - Learning objectives - Activities combining observation and data - Age-appropriate complexity - Assessment methods - Ubuntu philosophy integration

Step 3: Technical Capacity Assessment

Current Infrastructure: - WiFi availability and coverage - Technical staff or partnerships - Data management systems - Existing technology in education - IT support capacity

Technical Readiness: - Who will manage sensor installation? - Who will monitor system health? - Who will troubleshoot issues? - Backup plans if technical staff unavailable - Budget for ongoing internet/connectivity

Data Management: - How will you access and use sensor data? - Plans for data visualization in classroom - Student data privacy protocols - Data sharing permissions and ethics - Integration with existing systems

Step 4: Budget and Sustainability

Startup Costs You'll Need to Cover: - WiFi connectivity (if not existing) - Mounting hardware (if beyond provided) - Educational materials printing - Teacher training time - Site preparation

Ongoing Costs: - Internet service - Electricity (if needed) - Equipment maintenance - Educator time - Student materials

Sustainability Plan: - How will living lab continue year after year? - Institutional commitment level - Staffing continuity plans - Equipment replacement planning - Integration into core educational mission

Step 5: Community Benefit Plan

Public Access: - Will you make data publicly available? - Can community members visit the site? - Public event possibilities - Partnerships with local organizations - Contribution to local food systems

Knowledge Sharing: - How will you share what you learn? - Documentation and storytelling plans - Presentations or publications - Mentoring other institutions - Network participation

Phase 3: Submitting Your Application

Step 1: Initial Inquiry

Contact UBEC: - Email: livinglabs@ubec.protocol - Subject: "Living Lab Application - [Your Institution Name]"

In Your Initial Email, Include: - Institution name and type - Location (city, region, country) - Brief description of your site (2-3 sentences) - Total land area available - Number of students/participants annually - Current environmental education programs - Your primary contact information - Best time for initial conversation

What Happens Next: - UBEC responds within 5-7 business days - Initial conversation scheduled (30-45 minutes) - You'll receive detailed application forms - Timeline and process explained - Questions answered

Step 2: Complete Full Application

Application Components:

Part A: Institutional Profile - Official institution name and registration - Educational mission and values - History and background - Student demographics and numbers - Staff and educator capacity - Governance and decision-making structure

Part B: Site Details - Detailed site description - Land area and ecosystem inventory - Site photos (at least 10 from different angles) - Site map or diagram - Current and planned uses - Biodiversity assessment - Water and soil characteristics

Part C: Educational Program - Current environmental education description - Living lab integration plan - Sample lesson plans (2-3) - Student engagement strategy - Age-appropriate learning pathways - Assessment and evaluation plans - Teacher training and support plans

Part D: Technical Plan - Current technical infrastructure - Sensor placement proposal - WiFi and connectivity assessment - Data management approach - Technical support structure - Maintenance and troubleshooting plans

Part E: Community Integration - Public access and engagement plans - Local partnership possibilities - Contribution to food sovereignty - Knowledge sharing commitments - Network participation intentions

Part F: Budget and Sustainability - Startup costs (what you need grants for) - Ongoing operational costs - Sustainability plan - Institutional commitment documentation - Multi-year vision

Part G: References and Support - Letters of support from: - School leadership/board - Key educators - Technical partners (if any) - Community partners - Students or parents (optional)

Timeline for Application Completion: Allow 2-4 weeks to gather all materials and complete application thoroughly.

Step 3: Site Assessment

Virtual or In-Person Visit: UBEC team will assess your site through: - Video walkthrough (for remote assessment), or - In-person visit (if geographically feasible)

What We'll Evaluate: - Site suitability for sensor placement - Ecosystem diversity and potential - Educational infrastructure - Technical readiness - Community integration potential - Sustainability likelihood

Your Preparation: - Charge devices for video call - Have good lighting for site tour - Prepare key people to participate - Have questions ready - Be honest about challenges

After Assessment: - You'll receive feedback within 7-10 days - May request additional information - May suggest modifications to plan - Timeline for decision communicated

Step 4: Evaluation Committee Review

Who Reviews Your Application: - UBEC team members - Experienced living lab operators - Educational specialists (especially Waldorf/anthroposophical) - Environmental scientists - Technical/IoT experts - Community development practitioners

Evaluation Criteria: - Educational mission and commitment - Site suitability and potential - Technical capacity and readiness - Community benefit and integration - Long-term sustainability - Alignment with UBEC values - Contribution to citizen science

Timeline: - 30-45 days from complete application to decision

Phase 4: Evaluation and Decision

Possible Outcomes

Full Approval: - Meets all criteria - Equipment procurement begins immediately - Installation scheduled within 30 days - Training and setup commence

Conditional Approval: - Strong application, minor adjustments needed - Specific conditions must be met first: - WiFi installation completion - Additional educator training - Site preparation tasks - Partnership formalization - Token allocation pending condition fulfillment - Support provided to meet conditions

Deferred: - Promising but not quite ready - Guidance provided on what to develop: - Strengthen educational integration plan - Improve technical capacity - Enhance sustainability planning - Build community partnerships - Encouraged to reapply in 6-12 months - Ongoing support and resources provided

Declined: - Does not meet core criteria currently - Clear explanation provided - Suggestions for alternative approaches - Welcome to reapply if circumstances change significantly

If Approved: Next Steps

Step 1: Agreement Finalization (Days 1-7) - Review and sign formal agreement - Terms: equipment loan, data responsibilities, reporting - Token allocation amount confirmed - Implementation timeline established - Contact persons designated

Step 2: Equipment Procurement (Days 7-21) - SenseBox or equivalent ordered - Sensors selected based on your ecosystems - Shipping arranged - Installation materials prepared - Documentation package assembled

Step 3: Installation Coordination (Days 21-30) - Installation date scheduled - Technical support arranged (remote or on-site) - Educator training planned - Student engagement activities prepared - Community launch event planned (optional)

Step 4: System Setup (Days 30-45) - Sensor station installed and tested - WiFi connectivity verified - Data transmission confirmed - Stellar wallet created for institution - Blockchain connection established - First tokens received and verified

Step 5: Educational Launch (Days 45-60) - Educator training delivered - First student activities conducted - Observation protocols established - Data platform access provided - Curriculum materials distributed - Community launch event (if planned)

Step 6: Initial Monitoring (Days 60-90) - Daily system health checks - Weekly educator check-ins - First data quality assessments - Early troubleshooting - Student engagement feedback - Initial reporting

Phase 5: Your First 90 Days as a Living Lab

Month 1: Installation and Initial Operation

Week 1-2: Physical Setup - [ ] Sensor station installed and mounted securely - [ ] WiFi connectivity tested and optimized - [ ] All sensors calibrated and functioning - [ ] Data transmission verified (every 15 minutes) - [ ] System health monitoring established - [ ] Emergency contact list posted - [ ] Initial photos documented

Week 3-4: Educational Launch - [ ] Educator training completed - [ ] Student introduction to living lab - [ ] First phenomenological observations conducted - [ ] First data access and viewing - [ ] Initial lesson plans implemented - [ ] Student excitement and questions captured - [ ] First tokens received and celebrated!

Technical Targets: - System uptime: >90% (building toward 95%) - Data quality score: >85 (building toward 90) - Successful data transmissions: >95% - All sensors operational

Educational Targets: - All key educators trained - Students introduced to living lab - First 3-5 observation/data activities completed - Student understanding of sensors and observation - Excitement and engagement evident

Support Available: - Daily check-ins (week 1) - Weekly technical support calls - Educator support as needed - Troubleshooting priority response - Curriculum implementation guidance

Month 2: Building Routine and Integration

Establishing Patterns: - [ ] Regular observation schedule (e.g., Tuesdays and Thursdays) - [ ] Weekly data review with students - [ ] Routine system health monitoring - [ ] Teacher collaboration on lesson planning - [ ] Student questions and curiosity encouraged - [ ] Community awareness building - [ ] First patterns noticed in data

Curriculum Deepening: - [ ] Integrate living lab into multiple subjects - [ ] Develop student-led inquiry questions - [ ] Compare phenomenological and sensor observations - [ ] Introduce blockchain concepts (age-appropriate) - [ ] Explore reciprocity and economics of data - [ ] Connect to local/global environmental issues

Technical Optimization: - [ ] Monitor and improve uptime - [ ] Address any sensor issues - [ ] Optimize data quality - [ ] Establish maintenance routines - [ ] Document technical learnings

Community Engagement: - [ ] Share initial findings with parents/community - [ ] Invite partners to see living lab - [ ] Post updates on school communications - [ ] Consider first community event

Support Available: - Bi-weekly check-in calls - Curriculum consultation - Technical support as needed - Peer living lab connections - Resource library access

Month 3: First Formal Assessment and Reflection

System Performance Review: - Uptime percentage: _ - Data quality scores: _ - Number of successful readings: _ - Technical issues encountered and resolved: _ - System reliability: _

Educational Integration Review: - Number of lessons/activities conducted: _ - Student engagement level (scale 1-10): _ - Educator confidence and capability: _ - Curriculum areas integrated: _ - Student learning outcomes: _ - Unexpected insights or discoveries: _

Community Impact Review: - Public awareness created: _ - Community events held: _ - Partnerships developing: _ - Data access and usage: _ - Contribution to bioregional knowledge: _

Quarterly Report Due: Prepare your first quarterly report including: - System performance metrics - Educational integration narrative - Student engagement stories and examples - Photos of students learning - Data visualizations or findings - Challenges encountered and solutions - Successes and celebrations - Plans for next quarter - Support needed

Reflection Questions: - What has worked better than expected? - What has been more challenging than anticipated? - How are students responding? - What are educators learning? - How is the living lab changing your institution? - What adjustments would improve the program? - What are you most excited about for the next phase?

Next Steps Discussion: - Plan for next 3-6 months - Additional training needs - Equipment expansion possibilities (more sensors?) - Deeper community engagement - Research questions emerging - Network participation opportunities

Ongoing: Long-Term Success as a Living Lab

Quarterly Rhythms

Every Quarter: - Submit comprehensive report - Review system performance - Assess educational integration - Evaluate student learning - Measure community impact - Celebrate successes - Identify needed support - Plan next quarter activities

Annual Milestones

Year 1: - Full system operation and reliability - Strong educational integration - Community awareness established - Data contributing to citizen science - Holonic score: Contributor (0.6-0.8)

Year 2: - Expanded curriculum integration - Student-led research projects - Community events and partnerships - Potential for additional sensors - Holonic score: Contributor-Integrator (0.6-0.8)

Year 3+: - Model and mentor for other institutions - Publications or presentations - Research collaborations - Network leadership - Holonic score: Integrator-Exemplar (0.7-1.0)

Evolution Pathways

Deepen Educational Integration: - More subjects incorporating living lab - Student thesis or capstone projects - Cross-grade collaboration - Alumni engagement - Teacher professional development offerings

Expand Physical Infrastructure: - Additional sensor stations - More ecosystem diversity - Food production integration - Community garden spaces - Outdoor classroom structures

Grow Community Engagement: - Regular public open houses - Citizen science participation opportunities - Workshop and training offerings - School-community partnerships - Bioregional network leadership

Contribute to Research: - Academic research partnerships - Publications in journals or proceedings - Conference presentations - Longitudinal data analysis - Curriculum development for broader use

Mentor Other Institutions: - Share your model and learnings - Host site visits from interested schools - Provide consultation to new living labs - Co-create educational resources - Network facilitation and leadership

Special Considerations for Living Labs

Bridging Technology and Nature

Living labs embody a unique philosophy: technology and nature are not opposites but complementary expressions of creative forces.

Phenomenological Observation: - Students first observe with their human senses - Direct experience of weather, plants, soil, insects - Developing attentiveness and presence - Goethean science principles (where appropriate) - Drawing, poetry, narrative description

Digital Sensing: - Sensors extend perception beyond human senses - Measure phenomena continuously over time - Detect patterns not visible to direct observation - Quantitative data complements qualitative experience - Introduces data literacy and scientific methodology

Integration: - "What do you notice?" (sensory observation) - "What do the sensors detect?" (digital data) - "How do they relate?" (synthesis) - "What patterns emerge?" (analysis) - "What questions arise?" (inquiry)

This creates "ecological-digital fluency" - comfort and competence with both natural and technological systems.

Age-Appropriate Progression

Early Childhood (Ages 3-7): - Focus: Direct sensory experience - Activities: Touching soil, observing weather, watching plants grow - Technology: Minimal to none; sensors in background - Learning: Wonder, observation, care for living things

Elementary (Ages 7-12): - Focus: Observation and simple measurement - Activities: Nature journaling, basic data collection - Technology: Looking at sensor data, simple graphs - Learning: Patterns, seasons, cause and effect

Middle School (Ages 12-14): - Focus: Scientific investigation and analysis - Activities: Formulating questions, analyzing data, comparing observations - Technology: Data visualization, understanding sensors - Learning: Scientific method, data literacy, systems thinking

High School (Ages 14-18): - Focus: Complex analysis and independent research - Activities: Student research projects, advanced data analysis, blockchain concepts - Technology: Full IoT and blockchain understanding, coding possibilities - Learning: Advanced science, economics, technology, ethics

Waldorf/Anthroposophical Integration

For Waldorf schools and anthroposophical institutions:

Rudolf Steiner's Insights: - Technology as "moralized matter" - Importance of developmental appropriateness - Value of Goethean observation methods - Integration rather than rejection of technology

Living Lab as Bridge: - Honors developmental stages - Maintains primacy of sensory experience - Introduces technology thoughtfully and contextually - Demonstrates technology in service of life - Creates "thinking like a plant" capacities

Curriculum Integration: - Main lesson blocks on weather, plants, environmental science - Practical arts (gardening, composting) - Sciences (biology, chemistry, environmental studies) - Economics and social studies (reciprocity, commons, value) - Mathematics (measurement, statistics, data analysis)

Token Economics for Living Labs

Understanding Your Token Flows

Setup Grant (UBEC tokens): - One-time allocation: 5,000 - 25,000 UBEC - Used for: Equipment, installation, training, initial materials - Held in your institution's Stellar wallet - Can be used for: Ongoing maintenance, educational materials, community events, improvements

Ongoing Data Contributions (UBECrc tokens): - Earned automatically: ~7.14 UBECrc per reading - Frequency: Every 15 minutes (96 readings/day per sensor) - Daily total: ~686 UBECrc per day per sensor - Monthly: ~20,580 UBECrc per month per sensor - Tokens automatically sent to your Stellar wallet

Token Usage Possibilities: - Equipment maintenance and upgrades - Internet and connectivity costs - Educational materials and supplies - Teacher professional development - Student field trips related to environmental studies - Community event hosting - Site improvements (plantings, infrastructure) - Exchange with other UBEC participants - Hold for future needs

Reciprocal Economy Model: Your living lab demonstrates reciprocity in action: - You provide: Environmental data, educational engagement, community benefit - You receive: Token recognition, equipment, technical support, educational resources - Ecosystem benefits: Distributed environmental monitoring, next-generation education, regenerative economics modeling

Financial Sustainability

Direct Costs Covered: - Equipment (via grant) - Technical support (via UBEC) - Educational resources (via UBEC)

Costs You Manage: - Staff time (teachers, technical support) - Internet connectivity - Ongoing maintenance materials - Site development and improvements

Token Income Potential: - ~20,000 UBECrc/month can offset operational costs - Tokens may be exchanged for goods/services in UBEC ecosystem - Future token value appreciation possible - Educational value is primary; tokens are recognition

Troubleshooting Common Challenges

Technical Issues

Problem: Sensors stop transmitting - Check WiFi connectivity - Verify power supply - Restart sensor station - Check for physical damage - Contact technical support

Problem: Data quality scores dropping - Clean sensors (dust, debris, insects) - Recalibrate sensors - Check for obstructions - Verify sensor positioning - Review data anomalies with support team

Problem: WiFi connectivity unreliable - Upgrade router or WiFi equipment - Reduce distance to sensor station - Add WiFi extender - Consider cellular backup - Contact technical support for alternatives

Educational Challenges

Problem: Teachers feel overwhelmed - Start smaller: One subject, one teacher - Use provided curriculum materials - Connect with peer living labs for ideas - Schedule educator support calls - Celebrate small wins

Problem: Students not engaged - Make observations more hands-on - Let students ask their own questions - Create student "research teams" - Connect to their lived experiences - Use data to answer real questions they care about

Problem: Curriculum integration unclear - Review provided lesson plans - Start with obvious connections (science, math) - Request curriculum consultation - Visit or connect with other living labs - Be patient - integration deepens over time

Operational Challenges

Problem: Insufficient staff time - Start with minimum viable integration - Build gradually as capacity grows - Engage parent or community volunteers (with proper training) - Consider student helpers (older students) - Request additional support from UBEC

Problem: Equipment damaged or stolen - Document and report immediately - File insurance claim if applicable - Contact UBEC for replacement process - Consider improved security measures - Review and update security protocols

Problem: Community interest low - Share compelling stories and photos - Invite community for special events - Highlight student learning and excitement - Use social media and newsletters - Partner with local environmental groups

Resources and Support

Technical Resources

Documentation: - SenseBox/equipment user manuals - Sensor calibration guides - WiFi setup tutorials - Troubleshooting flowcharts - Video tutorials

Support Channels: - Technical support email: techsupport@ubec.protocol - Emergency hotline for urgent issues - Online troubleshooting knowledge base - Scheduled technical office hours - Peer living lab technical sharing

Educational Resources

Curriculum Materials: - Lesson plan library (all age groups) - Student workbooks and handouts - Teacher guides with background information - Assessment rubrics and tools - Cross-curricular integration ideas

Professional Development: - Educator webinars (monthly) - Annual living lab educator conference - Online course modules - Peer learning circles - Mentorship from experienced living lab teachers

Philosophy and Background: - Ubuntu philosophy for educators - Regenerative economics primer - Technology-nature integration framework - Anthroposophical education resources (if applicable) - Citizen science best practices

Community and Network

Living Lab Network: - Directory of all living labs in UBEC - Monthly network calls - Regional gatherings - Collaborative research opportunities - Shared learning platform

Citizen Science Networks: - OpenSenseMap integration - Contribution to global databases - Research partnership possibilities - Data visualization and analysis tools - Scientific publication opportunities

Local Community: - Community engagement toolkit - Event planning guides - Partnership development resources - Storytelling and communication templates - Social media content ideas

Contact and Help

Your Questions Answered: - Living Lab FAQ: help.ubec.protocol/livinglabs - Email: livinglabs@ubec.protocol - Community forum: forums.ubec.protocol/livinglabs - Scheduled office hours: [times listed on website]

Emergency Technical Support: - Critical system failures: emergency@ubec.protocol - Response time: <4 hours - Available: 24/7 for critical issues

Closing Thoughts

"As we learn to think like a plant, we discover that technology and nature are not opposites but complementary expressions of the same creative forces that shape our world."

Your living lab embodies this principle. By creating spaces where students engage with both living systems and digital systems, you're preparing next generations for a future that integrates rather than separates these domains.

You're not just monitoring the environment—you're cultivating ecological-digital fluency, regenerative economics understanding, and Ubuntu consciousness in the next generation.

Welcome to the living lab network. Welcome to the future of education.

Attribution

This project uses the services of Claude and Anthropic PBC to inform our decisions and recommendations. This project was made possible with the assistance of Claude and Anthropic PBC.

Return to Onboarding Overview