EASEBRAIN ACADEMY — OFFLINE MISSION PACK Explore the frontier https://easebrain.live/curriculum/explore-the-frontier CHALLENGE Investigate a biotechnology, advanced-materials or energy concept using published sources and a safe model. Compare it with a simpler alternative. LEARNING OBJECTIVES Distinguish a laboratory result from field readiness. Compare lifetime costs, environmental effects and a simpler alternative. LEARN & APPLY 1. Understand the scale Explain the system and relevant scale before using technical labels. Ratios, diagrams and models help distinguish a concept from an application. Define unfamiliar terms in your own words. Practice: Create an annotated diagram and explain three key terms. 2. Check the evidence Separate laboratory findings from field performance. Ask about the sample, conditions, replication and uncertainty. Trace claims to their sources and record what remains unknown. Practice: Compare two credible sources and their limitations. 3. Ask whether it is feasible Consider cost, manufacture, maintenance, environmental effects and the expertise needed. Introductory work uses models and published data, not unknown cultures, human samples or free nanopowders. Practice: Compare the concept with a simpler alternative and recommend a next research step. WORKED EXAMPLE A new filter works under specified laboratory conditions. This does not establish performance with every local water source or make water safe to drink. Compare materials, maintenance, waste, expertise and the scope of the evidence. YOUR PRACTICE QUESTION What is a responsible next step after one promising laboratory result? Write your answer before reading the explanation below. EXPLANATION State the supported claim and limitations, examine replication and relevant conditions, and propose a safe investigation using published data or a model. Do not turn an early result into a public safety promise. STRETCH Create an evidence-versus-unknowns table and compare a lower-tech alternative across its whole lifetime. PRACTICAL: Model useful energy before choosing equipment Suggested time: 60–75 minutes Illustrated crew scenario (fictional learning example) A bigger solar panel will solve the club’s lighting problem. First estimate the energy needed, the usable supply and what we still do not know. PREDICT: How are watts and watt-hours different? Can a power rating alone tell us daily energy? STARTER: Fictional assumptions: panel power 100 W; four equivalent full-sun hours/day; system factor 0.75. A 10 W lamp runs for five hours. This is an educational model, not an installation or purchasing specification. 1. Track units Energy = power × time. Compute daily modelled supply and lamp demand. Explain that equivalent full-sun hours are a modelling input, not a promise of exactly four sunny clock-hours. 2. Test uncertainty Recalculate for two and six equivalent hours, then two lamps. List what the simple system factor hides: weather, losses, storage and ageing. Do not count the same loss twice. 3. Compare a frontier idea Compare the model with one materials or biotechnology idea from your mission. Use a claim/evidence/uncertainty table and a primary source. Choose what can be tested safely in a model rather than attempting unsupervised experiments. COMPARE AFTER TRYING: Supply is 100×4×0.75=300 Wh/day. One lamp needs 10×5=50 Wh. The arithmetic leaves a nominal 250 Wh margin, but storage capacity, peak demand and actual conditions are not specified. A positive daily balance is not sufficient to design an installation. SELF-CHECK Power uses W and energy uses Wh. I show at least two changed assumptions. I name a boundary beyond which my model cannot support a decision. TRANSFER: The lamp is needed after sunset. Explain which additional storage evidence is missing before making a recommendation. WORKBOOK TEMPLATE Input | Value | Unit | Source or assumption Supply calculation: Demand calculation: Low / base / high scenario: Claim | Evidence | Uncertainty Model limitations: EVIDENCE CRITERIA Accurate explanation of the concept Traceable evidence and uncertainty Feasibility comparison and responsible next step Deliverable: Frontier-science feasibility brief SESSION PLAN (adapt with your facilitator) Recall & plan: 30 minutes Model & discuss: 45 minutes Guided practice: 75 minutes Build & test: 120 minutes Feedback & revise: 60 minutes Reflect & next step: 30 minutes RESOURCES Kenya National Bureau of Statistics: Statistical Abstracts — https://www.knbs.or.ke/statistical-abstracts/ KICD Basic Education Curriculum Framework — https://kicd.ac.ke/curriculum-reform/basic-education-curriculum-framework/ AI DISCLOSURE TEMPLATE Tool/version; date; task; information shared; claims checked and sources; what I changed; what I can explain myself. No AI or equipment purchase is required. Keep personal information out of project evidence.