The two five-minute extras in each row are alternatives, not extra mandatory lesson time. Home routes are optional and can be done with scrap paper or an oral/AAC explanation. No device, purchase, journey, personal money/technology data, family interview or adult marking is needed. All domains and figures are fictional. Give Day 15/20 extras after collecting the held-out checks. Teacher quick key is separate.
| Day | Extra A · five minutes | Extra B · five minutes | No-purchase home/low-material route |
|---|---|---|---|
| 11 | Recipe-card paths: 4^2×4^1: explain why 4³ counts ordered choices if each stage has four options. |
Game buttons: compare 2^2×2^5 with 2^2+2^5 and give both values. |
Make up two independent small choice stages on paper and explain why the counts multiply. No real game data. |
| 12 | Paper stack: 7^4/7^2=7^2; expand enough factors to check. |
Equal packs: explain 9^3/9^3=9^0 without using 0^0. |
Use identical counters to show six items grouped by three; then narrate how powers group in a larger invented model. |
| 13 | Mini-scale: 10^−1=1/10 of a drawn 1 m line is 0.1 m. Label metres. |
Correct “3^−2=−9” using a fraction and the non-zero-base condition. |
Draw a paper strip and split it into ten equal parts; label one tenth without measuring a real object. |
| 14 | Cue pairs: (4^2)^2=4^4; verify with 16×16. |
Explain why (5^1)^3=5^3 differs from 5^1×5^3=5^4. |
Invent two paper choice lists and write a bracketed expression for ordered pairs. |
| 15 | After check: revisit Card A and explain why 8+16 is not 128 pairs. | Reopen Card B and rewrite one same-base quotient as expanded factors. | Use an earlier model only to say where the rule is valid; do not rehearse today's new source. |
| 16 | Music-loop sketch: y^2×y^4=y^6 for y independent options; test y1. |
Compare z^4/z^2 at z2 and z0, naming the denominator restriction. |
Draw six equal-choice abstract slots labelled y and explain what y0 would mean; no real music file is needed. |
| 17 | Signed ratio: w^1/w^4=w^−3; evaluate w−1 and state w≠0. |
Refute “a negative exponent always means a fraction less than 1” with base 1/2: (1/2)^−1=2. |
Create a two-row table for an invented non-zero scale factor, with one positive and one negative input. |
| 18 | Branching story: 3^t×3^(t+1)=3^(2t+1); check t1. |
Contrast 2^(k+1)×2^(k+1) with 2^(k+2) at k1. |
Place k plus k+1 labelled paper cards in two groups and count how many exponent slots combine. |
| 19 | Tile grid: (4^j)^2=4^(2j); at j1, 16 paper tiles. |
A two-column design has 2×3^s, not (3^s)^2; explain at s1. |
Sketch two different paper arrays with the same label but different row counts; match each to its expression. |
| 20 | After check: revisit Card F and identify why u0 invalidates the quotient. | Revise Card H's 64-icon caption to name a missing print/reader check. | Choose an earlier practice card and explain its domain to a hypothetical reader; do not use today's held-out values. |
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