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Powers of Ten Patterns

Mathematics • 60 • 30 students • Created with AI following Aligned with Common Core State Standards

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Mathematics
60
30 students
10 August 2026

Teaching Instructions

Create a 5 day lesson plan for SC new Math standards via Envision Math by Savvas for grade 5 Topic 1--Understand Place Value on Standard 5.NR.1.1 Patterns with Exponents and powers of 10 inclusive of a quiz and (test on Friday), vocabulary and homework, pair-share, small groups, success criteria and closure.

Overview

Across five 60-minute lessons, students build understanding of place value, powers of 10, and exponent patterns through models, equations, discussion, and problem solving. The sequence follows Savvas enVision Mathematics Grade 5, Topic 1, and connects powers-of-10 reasoning to decimal operations and whole-number division.

Learning intentions

Students will be able to:

  • Explain powers of 10 using place-value patterns.
  • Use exponents to represent repeated factors of 10.
  • Describe how digits and decimal points change when multiplying or dividing by powers of 10.
  • Apply place-value reasoning to solve and explain problems.
  • Use benchmark reasoning to check whether answers are reasonable.

Success criteria

Students can say:

  • I can explain what an exponent tells me about a power of 10.
  • I can use a place-value chart or model to show a pattern.
  • I can multiply or divide by 10, 100, and 1,000 and explain what happens.
  • I can justify my answer with an equation, model, words, or estimation.

Curriculum links

  • Place value, powers of 10, exponents, and decimal-point patterns.
  • Whole-number quotients using place value and the relationship between multiplication and division.
  • Decimal operations to hundredths using place-value strategies.
  • Multiplication as scaling and estimation to assess reasonableness.
  • South Carolina Grade 5 standard 5.NR.1.1: patterns with exponents and powers of 10.

Lesson structure (Day 1: 60 minutes)

  1. 0–7 min · Hook. Open with the week’s opening number puzzle: “What changes in 4 when it becomes 40, 400, or 4,000?” Students pair-share and record a prediction.
  2. 7–20 min · Direct teach. Use the place-value chart and power-of-10 examples to connect 10, 100, and 1,000 with (10^1, 10^2,) and (10^3); students model each with place-value disks or drawings.
  3. 20–38 min · Partner practice. Distribute the powers-of-10 modeling practice. Partners match expressions, models, and expanded forms, explaining each match.
  4. 38–52 min · Small groups. Groups of five solve assigned “What is the pattern?” problems and prepare one explanation using words and an equation.
  5. 52–60 min · Closure and homework. Students complete the exit reflection: “How does the exponent relate to the zeros?” Homework: write and explain three powers of 10.

Lesson structure (Day 2: 60 minutes)

  1. 0–8 min · Review. Display retrieval questions; students solve (10^2), (10^3), and explain the exponent to a partner.
  2. 8–22 min · Direct teach. Demonstrate multiplying whole numbers by powers of 10 with a place-value chart, emphasizing that digits shift to greater place values rather than simply “adding zeros.”
  3. 22–40 min · Pair-share practice. Partners complete the multiplication-by-powers-of-10 section and explain two answers using sentence frames: “The digit ___ moved from ___ to ___ because…”
  4. 40–53 min · Small-group error analysis. Groups analyze incorrect statements such as (36 \times 10^2=362), correct them, and defend the correction.
  5. 53–60 min · Closure and homework. Students answer the quick-check prompt: “Why does multiplying by (10^3) make a number 1,000 times as large?” Homework: six multiplication problems and one written explanation.

Lesson structure (Day 3: 60 minutes)

  1. 0–7 min · Hook. Show the decimal-scale visual comparing 3.5, 35, and 350. Students predict the result of multiplying 3.5 by 10 and 100.
  2. 7–22 min · Direct teach. Model decimal multiplication and division by powers of 10, using a chart and arrows to show digit movement and the changing location of the decimal point.
  3. 22–38 min · Guided practice. Students complete the decimal patterns section with a partner, including values to the hundredths and missing-number equations.
  4. 38–52 min · Small groups. Groups solve real-world scaling cards shown on the group-task slides, then compare methods and estimate to check reasonableness.
  5. 52–60 min · Closure and homework. Students complete a one-minute explanation: “When dividing by (10^2), what happens and why?” Homework: four decimal problems plus a vocabulary review.

Lesson structure (Day 4: 60 minutes)

  1. 0–8 min · Review game. Use the vocabulary and review prompts for whole-class responses involving exponent, power of 10, product, quotient, factor, decimal point, and place value.
  2. 8–20 min · Mini-lesson. Connect multiplication and division: if (48 \times 10^2=4,800), then (4,800 \div 10^2=48). Students represent the relationship with equations and an area or place-value model.
  3. 20–38 min · Collaborative stations. Teams rotate through three tasks on the mixed review and explanation page: whole numbers, decimals, and error analysis.
  4. 38–51 min · Quiz. Students complete a short quiz covering exponents, powers of 10, multiplication and division patterns, and one explanation item. Review common errors without scoring publicly.
  5. 51–60 min · Closure and homework. Students use the test-preparation checklist to identify one strength and one goal. Homework: correct quiz errors and complete a five-question study review.

Lesson structure (Day 5: 60 minutes)

  1. 0–8 min · Warm-up. Students solve two low-stakes review questions from the final review slides and pair-share their reasoning.
  2. 8–13 min · Test directions. Clarify expectations, read directions aloud, and remind students to show models, equations, or written reasoning.
  3. 13–45 min · Unit test. Students independently complete the test on powers of 10, exponents, whole-number and decimal patterns, division relationships, and reasonableness.
  4. 45–54 min · Reflection. Students review their work for unlabeled models, misplaced decimal points, and unanswered explanations, then complete the post-test reflection.
  5. 54–60 min · Closure. Students share one strategy they used and respond to the closing prompt: “How does place value help you understand powers of 10?”

Resources

  • the five-day powers-of-10 slide deck
  • the five-day practice, quiz, and reflection packet
  • Place-value charts and place-value disks
  • Student math journals and pencils
  • Document camera or interactive board
  • Exit slips
  • Day 4 quiz and Day 5 unit test
  • Vocabulary display: exponent, power, factor, product, quotient, place value, decimal point

Assessment

  • Monitor pair explanations, models, journal work, and group reasoning; ask students to explain rather than only state answers.
  • Use daily exit responses, the Day 4 quiz, and error analysis to identify misconceptions about exponents and decimal movement.
  • Score the Day 5 test for accuracy and explanation; require students to connect answers to place value, equations, models, or estimation.

Differentiation

  • Support: provide labeled place-value charts, color-coded digit arrows, multiplication and division sentence frames, worked examples, and read-aloud directions. Allow students to use disks or drawings before recording a method.
  • EAL and students needing language support: preteach vocabulary with visuals and allow oral rehearsal with a partner before written explanations.
  • SEN considerations: reduce the number of practice items without reducing the reasoning demand, provide enlarged charts, frequent checks for understanding, and a quiet test location when appropriate.
  • Advanced learners: challenge students to create and defend an error involving (10^4), write a real-world scaling problem with decimals, or find two different representations for the same quotient.

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