JOANA & MOM

GCN Learning Hub – Thomas Edison Experience

GLOBE + Pudu “Invent the Future” Family Program (Ages 11–14)

Prepared for Adriana LHO (Learning Hub Operator) Certification

In support of GCN–University of San Diego (USD) cooperation

These materials formalize and expand the provided 12-week program for certification review, university partnership evaluation, and LHO credentialing. They retain the joyful, flexible, family-centered outdoor structure while delivering rigorous middle-school cognitive demand, authentic NASA GLOBE citizen-science contributions, and Edison-inspired inventive process fused with first-principles thinking.

1. Full Curriculum Outline

Program Title: Thomas Edison Experience – From Clouds to Humanoids: Citizen Science Meets Service Robotics

Duration: 12 weeks (one quarter)

Format: Weekly 50–70 minute live online GCN Learning Hub session + 30–60+ minute Family Mission (outdoor investigation + indoor reflection/engineering)

Core Pedagogy: Edison Laboratory Method (Observe → Experiment → Iterate → Apply) + Musk-style first-principles decomposition + parent–child co-investigation

Program Goals  

• Students: Conduct rigorous GLOBE observations submitted to NASA’s database; master core robotics concepts (sensors, dual SLAM, multi-modal interaction, wheeled vs. bipedal mobility, dexterous manipulation, embodied AI) through real Pudu examples (BellaBot / BellaBot Pro and D9 humanoid); practice scientific and engineering design practices; explore stewardship and ethics; produce a useful invention.

• Parents / LHO candidates: Master GLOBE Observer app facilitation; gain progressive technical knowledge of commercial service robots and frontier humanoids; co-create outdoor STEM experiences; develop facilitation skills toward Certified LHO status and associated professional pathways.

  
  

12-Week Roadmap

Month 1 – Observation Laboratory (Weeks 1–4)

Edison principle: Careful, systematic observation and note-taking.  

• Week 1: Clouds & Sky (GLOBE Clouds protocol) + BellaBot introduction + dual SLAM navigation

• Week 2: Trees / Land Cover (GLOBE Trees & Land Cover) → Sensors & perception (LiDAR, RGB-D, cameras)

• Week 3: Weather systems → AI interaction & multi-modal engagement

• Week 4: Water bodies → Mobility foundations (wheeled chassis of service robots)

Month 2 – Experimentation Laboratory (Weeks 5–8)

Edison principle: Test, measure, fail productively, iterate.  

• Week 5: Mosquito habitats / living systems (GLOBE Mosquito Habitat Mapper) → Manipulation & dexterity (D9 arms + DH11 hands with 1,000+ tactile sensors)

• Week 6: Seasons & change over time → Embodied AI & learning

• Week 7: Integrated multi-protocol observation → Real-world applications & human–robot collaboration

• Week 8: Mid-point synthesis → Ethics, labor impact, environmental upside/downside of service & humanoid robots

Month 3 – Invention Laboratory (Weeks 9–12)

Edison + first-principles principle: Turn knowledge into useful prototypes that serve.  

• Week 9: Design Challenge launch – “Invent a robot that helps monitor or protect a natural system while serving people”

• Week 10: Prototype iteration (sketches, constraints, simple models or digital mock-ups) + continued GLOBE data

• Week 11: Testing, refinement, and family feedback (document failures like Edison)

• Week 12: Celebration & Public Share – final presentations in the GCN Learning Hub

Core Technology Knowledge Base (Progressive Parent/LHO Deep Dives)

Weekly one-page briefs covering:

• BellaBot / BellaBot Pro: cat-inspired multi-modal interaction, dual SLAM, ~40 kg payload, battery swap, indoor service focus.

• D9 humanoid: 170 cm height, 65 kg, 42 degrees of freedom, 352 N·m max joint torque, 2 m/s bipedal walking, stair/slope capability, DH11 dexterous hands (11 DoF, extensive tactile sensing), ~20 kg payload, “Born to Serve” embodied intelligence.

  
  

Required Student Tools

Edison Lab Notebook (date, GLOBE data, sketches, predictions, failures, design iterations, “What Edison would say” / first-principles reflection).

2. Standards Crosswalk

Program Element	California NGSS (Middle School)	GLOBE / NASA Citizen Science	Engineering & Other Alignments
GLOBE observations (clouds, trees/land cover, mosquitoes, water/weather)	MS-ESS2 Earth’s Systems; MS-LS2 Ecosystems; Science & Engineering Practices (Asking Questions, Planning Investigations, Analyzing Data)	Direct contribution to NASA GLOBE database; Clouds, Trees, Land Cover, Mosquito Habitat Mapper protocols	CA Science Framework Earth & Life Science strands
Sensor & perception study (LiDAR, cameras, dual SLAM)	MS-PS4 Waves; MS-ETS1 Engineering Design	Real-world remote-sensing analogy to satellite data validation	Computational thinking; systems modeling
Mobility, manipulation, embodied AI (BellaBot wheeled vs. D9 bipedal + DH11 hands)	MS-ETS1-1 Define problems with criteria/constraints; MS-ETS1-2 Evaluate solutions; MS-ETS1-3 Analyze data to improve designs; MS-PS2 Forces & Motion	Comparison of specialized vs. general-purpose robots for environmental monitoring	CTE / Technology & Engineering pathways; first-principles decomposition
Capstone invention & iteration	Full MS-ETS1 Engineering Design cycle; Constructing Explanations & Designing Solutions	Stewardship application of citizen-science data	Edison laboratory method; ethical reasoning (labor, environment, human–robot collaboration)
Family reflection & portfolio	Science & Engineering Practices (Obtaining, Evaluating, Communicating Information); Crosscutting Concepts (Systems, Cause & Effect)	Authentic data contribution + personal growth	USD-aligned community engagement & reciprocal learning principles; LHO facilitation competencies

Additional alignment: Supports informal STEM pathways, family engagement models valued in university community-partnership frameworks, and potential bridging to formal middle-school science or engineering electives.

3. Sample Portfolio Structure

Required for Certificate of Completion (Student) and LHO Demonstration Evidence (Parent/Facilitator)

1. Edison Lab Notebook – Complete 12-week record: dated GLOBE data entries, sketches, quantitative notes, robotics reflections, failure logs, design iterations, Edison/first-principles prompts.

2. GLOBE Data Portfolio – Minimum 12 confirmed observations submitted via GLOBE Observer app (primary + extras), with basic analysis (trends, comparisons, simple graphs).

3. Mid-Point Systems Comparison (end of Month 2) – One-page or short video comparing BellaBot-style specialized service robots vs. D9-style humanoids (sensors, mobility, manipulation, use cases, limitations).

4. Capstone Invention Package (Month 3)  

   • Design brief + labeled sketches or simple 3-D/digital mock-up

   • Constraints list and at least two documented iterations

   • “Why this serves nature and people” statement

   • Optional 60–90 second demo video

5. Family Contribution – One extra GLOBE observation per month outside class + parent-supported reflection.

6. Final Share – Live or recorded presentation in GCN Learning Hub (student-led; parent co-presenter welcome).

Sample Capstone Excerpt

“Design Brief: A low-impact wheeled-legged hybrid robot that uses GLOBE-style visual and environmental sensors to map mosquito habitats and tree health in urban green spaces while delivering educational materials or supplies to community members—combining BellaBot service reliability with selective D9-inspired dexterity for non-destructive sampling.”

4. Assessment ToolsPortfolio-Based (Primary)

Growth evidenced in observation quality, technical understanding, engineering thinking, authentic data contribution to NASA, and thoughtful discussion of technology’s societal role. No traditional letter grades; competency demonstrated through artifacts.

Key Rubrics (4-point scales)  

• Observation Quality: Accuracy of GLOBE protocol use, completeness of notes, quantitative analysis, submission confirmation.

• Technical Understanding: Accurate description of sensors, SLAM, mobility types, manipulation, and limitations of BellaBot vs. D9.

• Engineering Design Process: Clear problem definition, criteria/constraints, multiple iterations with documented failures, evidence of testing/refinement.

• Reflection & Stewardship: Depth of Edison/first-principles thinking, ethical reasoning, connection of citizen science to real-world service.

• Facilitation (LHO candidates): Ability to guide Family Missions, support notebook use, lead open-ended discussions, and model joyful outdoor inquiry.

Supporting Tools  

• Service / Observation Hour Log (date, protocol, location, hours, verification).

• Weekly Parent/LHO Technical Brief reflection prompts (“What would Edison measure?”, “How would first principles apply here?”).

• Mid-point and final self-assessment + facilitator feedback forms.

• Presentation rubric (clarity, evidence of learning, audience engagement, real-world relevance).

LHO Certification Pathway Indicators

Successful facilitation of at least one full 12-week cohort, complete student portfolios under guidance, demonstrated technical fluency with GLOBE + Pudu knowledge base, and reflective practice on family-centered outdoor STEM delivery. These artifacts support credit toward Certified LHO status and associated professional income pathways.

5. Additional Documentation Ready for University Review

• Weekly parent technical one-pagers (expandable).

• Sample Edison Lab Notebook pages and GLOBE data analysis templates.

• Safety and outdoor facilitation guidelines.

• Sample outreach and partnership language for local San Diego community sites.

• Alignment notes for potential USD community-engagement or STEM education credit pathways.

• Podcast / public-share assets (including the provided “Clouds, Cats & Humanoids” script) for dissemination.

These materials are complete, ready for Adriana’s LHO certification portfolio, and structured for GCN–USD cooperative review. They preserve the playful outdoor spirit while meeting rigorous middle-school cognitive and documentation standards.