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Freedom Project Proposal

STEM • 45 • 25 students • Created with AI following Aligned with Common Core State Standards

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STEM
45
25 students
23 May 2026

Teaching Instructions

Create a detailed lesson plan for Lesson 13 of a Year 6 Microbit mini-unit in STEM. Introduce Freedom Project where students choose personal projects. Discuss project proposals and planning. Include success criteria, extension, resources, lesson structure, assessment, and differentiation.

Overview

Today students begin the Freedom Project by choosing a personal Micro:bit mini-project, then drafting a proposal and plan. They will connect real-world constraints (inputs, outputs, time, and steps) to clear goals and mathematical reasoning needed to measure and divide resources.

Learning intentions

  • Students will be able to choose a Freedom Project topic and explain why it matters to them.
  • Students will be able to draft a proposal that includes purpose, features, and a step-by-step plan.
  • Students will be able to interpret simple fractional quantities in practical contexts (sharing materials or time) and represent them with models or equations.
  • Students will be able to use ordered pairs to describe locations for a display/schematic plan when needed.

Success criteria

  • I can state my Freedom Project goal in one clear sentence.
  • I can list at least 2–3 measurable features (what the Micro:bit will do).
  • I can describe my plan in ordered steps and identify what I need.
  • I can solve a related fraction-by-fraction or division-by-division situation and explain what the quotient means.

Curriculum links

  • The Number System — Interpret and compute quotients of fractions and solve word problems involving division of fractions by fractions.
  • The Number System — Understand signs of numbers in real-world contexts (useful for “above/below,” “in/out,” or “hot/cold” sensor descriptions).
  • The Number System — Understand signs of numbers as they relate to locations in quadrants (useful for a display or coordinate sketch).
  • The Number System — Solve real-world and mathematical problems by graphing points in all four quadrants and using coordinates/absolute value for distance.

Lesson structure (45 minutes total)

  1. 0–5 min · Launch (Hook). Teacher shows 2 quick example Freedom Projects (button-based light timer, weather-temperature alert) and asks: “What problem does this solve, and how will we prove it works?” Students turn-and-talk, then share one idea.

  2. 5–12 min · Mini-lesson: Freedom Project choice. Teacher explains that students will choose personal projects, and the proposal must include: problem/purpose, Micro:bit inputs/outputs, and success test. Students browse a short list of suggested themes (comfort, safety, school help, games, art, accessibility) and circle 2 they like.

  3. 12–20 min · Proposal template work (guided). Teacher models filling in the proposal: “I want to help ___ by using ___ so that ___.” Then demonstrates how to translate features into testable outcomes. Students complete their own “One-sentence goal” and “2–3 features” sections, using sentence starters on their handout.

  4. 20–28 min · Planning with constraints (math connection). Teacher gives a practical scenario: “If 1/2 lb of chocolate is shared equally by 3 people, how much does each person get?” (or any equivalent grade-6 fraction sharing scenario matching your classroom materials/time). Students solve in pairs using a visual model (rectangles or tape diagram) and an equation, then write one sentence explaining what the quotient means for the plan. Teacher circulates to ensure they interpret division correctly as a real context.

  5. 28–35 min · Micro:bit plan steps + optional coordinate sketch. Teacher shows a simple coordinate grid and reminds that ordered pairs can represent locations (for example, where a “target” appears on an LED-style layout or where a sensor reading corresponds on a chart). Students add a 4–6 step plan: gather parts, program setup, input test, output test, debug, final run. If their project uses a pattern/LED location, they write at least one ordered pair and label axes.

  6. 35–42 min · Share-out (peer feedback). Teacher sets a feedback protocol: “Glow (one strong part), Grow (one question), Next (one suggestion).” Students do a quick 2-minute exchange with a partner, then revise one part of their proposal based on feedback.

  7. 42–45 min · Exit ticket. Teacher collects a brief exit check: (1) one-sentence goal, (2) one measurable feature, (3) complete one fraction division statement from the scenario or a similar one you choose. Students submit and reflect on what they still need to plan or test.

Resources

  • Freedom Project proposal worksheet (goal, features, steps, materials needed)
  • Fraction visual models (tape diagram/rectangle templates)
  • Small graph paper or coordinate-grid mini-sheets
  • Micro:bit supplies list handout (optional checkboxes)
  • Timer (for pacing and planned test runs)
  • Example student-friendly project prompts (printed cards)
  • Pencil/eraser and colored pencils for marking steps

Assessment

  • Teacher observation during proposal drafting (checks for clarity and testability).
  • Pair feedback notes during Glow/Grow/Next (checks understanding of features and steps).
  • Exit ticket collects: goal clarity, measurable feature, and a quotient interpretation from a division-of-fractions context.

Differentiation

  • Support: Provide sentence starters for the one-sentence goal and a checklist rubric for “measurable features” (e.g., “When I press ___, the Micro:bit will ___.”).
  • Support: Offer a partially completed proposal example and a “step bank” (collect parts, code blocks, test, troubleshoot, finalize).
  • Extension: Students who finish early add a simple success-test table (input → expected output) and include an extra fraction word problem connected to their project’s resource planning (time, battery life estimate, or shared materials).
  • EAL/SEN: Allow verbal responses first, then students copy into the proposal; provide a word bank for planning language (input, output, button, sensor, test, debug, display, alert). Offer fewer features (2 instead of 3) if needed, with deeper detail on those features.

Extension

  • After today, students bring their proposal to the next class for a “materials check” and a first mini-prototype plan (one input and one output working together).

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