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The big ideas in IM Grade 5 include: developing fluency with addition and subtraction of fractions, and developing understanding of multiplication and division of fractions in limited cases (unit fractions divided by whole numbers and whole numbers divided by unit fractions); extending understanding of division to two-digit divisors; developing understanding of operations with decimals to hundredths, and developing fluency with whole- number and decimal operations; and developing understanding of volume.
This unit introduces students to the concept of volume by building on their understanding of area and multiplication.
In grade 3, students learned that the area of a two-dimensional figure is the number of square units that cover it, without gaps or overlaps. Students first found areas by counting squares and began to intuit that area is additive. Later, they recognized the area of a rectangle as a product of its side lengths and found the areas of more-complex figures composed of rectangles.
Here, students learn that the volume of a solid figure is the number of unit cubes that fill it without gaps or overlaps. First, they measure volume by counting unit cubes and observe its additive nature. They also learn that different solid figures can have the same volume.
Next, students shift their focus to right rectangular prisms: building them using unit cubes, analyzing their structure, and finding their volumes. They write numerical expressions to represent their reasoning strategies and work with increasingly abstract representations of prisms.
Later, students generalize that the volume of a rectangular prism can be found by multiplying its side measurements (\(\text{length} \times \text{width} \times \text{height}\)), or by multiplying the area of the base by its height (\(\text{area of the base} \times \text{height}\)). As they analyze, write, and evaluate different expressions that represent the volume of the same prism, students revisit familiar properties of operations from earlier grades.
Later in the unit, students apply these understandings to find the volume of a solid figure composed of two non-overlapping rectangular prisms and to solve real-world problems involving such figures. In doing so, they also progress from using cubes to using standard units to measure volume.
In this unit, students learn to interpret a fraction as a quotient and extend their understanding of multiplication of a whole number and a fraction.
In IM Grade 3, students made sense of multiplication and division of whole numbers in terms of equal-size groups. In IM Grade 4, they used multiplication to represent equal-size groups with a fractional amount in each group and to express comparison.
For instance, \(4 \times \frac{1}{3}\) can represent “4 groups of \(\frac{1}{3}\)” or “4 times as much as \(\frac{1}{3}\).”
The amount in both situations can be represented by the shaded parts of a diagram like this:
Students learn that a fraction like \(\frac{4}{3}\) can also represent:
Students also interpret the product of a whole number and a fraction in terms of the side lengths of a rectangle. The expression \(6 \times 1\) represents the area of a rectangle that is 6 units by 1 unit. In the same way, \(6 \times \frac{2}{3}\) represents a rectangle that is 6 units by \(\frac{2}{3}\) unit.
The commutative and associative properties become evident as students connect different expressions to the same diagram. The distributive property is used as students multiply a whole number and a fraction written as a mixed number, for instance: \(2 \times 3\frac{2}{5} = (2 \times 3) + (2 \times \frac{2}{5})\).
Throughout this unit, it is assumed that the sharing is always equal sharing, whether explicitly stated or not. For example, in the situation above, 4 objects are being shared equally by 3 people.
In this unit, students find the product of two fractions, divide a whole number by a unit fraction, and divide a unit fraction by a whole number.
Previously, students made sense of multiplication of a whole number and a fraction in terms of the side lengths and area of a rectangle. In this unit, students make sense of multiplication of two fractions the same way. Students interpret area diagrams with two unit fractions for their side lengths, a unit fraction and a non-unit fraction, and then two non-unit fractions.
Through repeated reasoning, students notice regularity in the value of the product (MP8). They generalize that it can be found by multiplying the numerators and multiplying the denominators of the factors:
\(\displaystyle{\frac{a}{b} \times \frac{c}{d} = \frac{a\times c}{b\times d}}\)
For example, \(\frac{2}{4} \times \frac{3}{5}\) is \(\frac{2 \ \times \ 3}{4 \ \times \ 5}\) because there are \(4 \times 5\) equal parts in the whole square and \(2 \times 3\) parts are shaded.
Next, students make sense of division situations and expressions that involve a whole number and a unit fraction. They recall that division can be understood in terms of finding the number of equal-size groups or finding the size of each group.
For instance, students interpret \(\frac{1}{3} \div 4\) to mean finding the size of one part if \(\frac{1}{3}\) is split into 4 equal parts, and \(4 \div \frac{1}{3}\) to mean finding how many \(\frac{1}{3}\)s are in 4.
Students consider how changing the dividend or the divisor changes the value of the quotients and look for patterns (MP8). They use tape diagrams to represent and reason about division situations and expressions.
Later in the unit, students apply what they learned to solve problems. The relationship between multiplication and division is reinforced when they notice that both operations can be used to solve the same problem.
In this unit, students multiply multi-digit whole numbers, using the standard algorithm, and begin working toward end-of-grade expectations for fluency. They also find whole-number quotients, with up to four-digit dividends and two-digit divisors.
In IM Grade 4, students used strategies based on place value and the properties of operations to multiply a whole number of up to four digits by a one-digit whole number, and to multiply a pair of two-digit numbers. They decomposed the factors by place value, and used diagrams and algorithms using partial products to record their reasoning.
Here, students build on those strategies to make sense of the standard algorithm for multiplication. They recognize that it also is based on place value but records the partial products in a condensed way.
Han and Elena used different algorithms to find the value of \(3 \times 318\).
Explain to your partner what Han and Elena did. What does the 2 represent in Elena's algorithm?
In grade 4, students also found whole-number quotients, using place-value strategies and the relationship between multiplication and division. They decomposed dividends in various ways and found partial quotients. The numbers they encountered then were limited to four-digit dividends and one-digit divisors. In this unit, they extend that work to include two-digit divisors.
As they build their facility with multi-digit multiplication and division, students solve problems about area and volume and reinforce their understanding of these concepts.
In this unit, students expand their knowledge of decimals to read, write, compare, and round decimals to the thousandths. They also extend their understanding of place value and numbers in base ten by performing operations on decimals to the hundredth.
In IM Grade 4, students wrote fractions with denominators of 10 and 100 as decimals. They recognized that the notations 0.1 and \(\frac{1}{10}\) express the same amount and are both called “one tenth.” Students used hundredths grids and number lines to represent and compare tenths and hundredths.
Students rely on diagrams and their understanding of fractions to make sense of decimals to the thousandths. They see that “one thousandth” refers to the size of one part if a hundredth is partitioned into 10 equal parts, and that its decimal form is 0.001. Diagrams help students visualize the magnitude of each decimal place and compare decimals.
Locate 0.001 on each number line.
Students then apply their understanding of decimals and of whole-number operations to add, subtract, multiply, and divide decimal numbers to the hundredths, using strategies based on place value and the properties of operations.
Students see that the reasoning strategies and algorithms they used to operate on whole numbers are also applicable to decimals. For example, addition and subtraction can be done by attending to the place value of the digits in the numbers, and multiplication and division can still be understood in terms of equal-size groups.
In IM Grade 6, students will build on the work to reach the expectation to fluently add, subtract, multiply, and divide multi-digit decimals using the standard algorithm for each operation.
In this unit, students deepen their understanding of place-value relationships of numbers in base ten, unit conversion, operations on fractions with unlike denominators, and multiplicative comparison. The work here builds on several important ideas from grade 4.
In grade 4, students learned the value of each digit in a whole number is 10 times the value of the same digit in a place to its right. Here, they extend that insight to include decimals to the thousandths. Students recognize that the value of each digit in a place (including decimal places) is \(\frac {1}{10}\) the value of the same digit in the place to its left.
This idea is highlighted as students perform measurement conversions in metric units.
Previously, students learned to convert from a larger unit to a smaller unit. Here, they learn to convert from a smaller unit to a larger unit. They observe how the digits shift when multiplied or divided by a power of 10 and learn to use exponential notation for powers of 10 to represent large numbers.
| L | mL |
|---|---|
| 5 | |
| 6.3 | |
| 0.95 | |
| \(10^2\) | |
| 800,000 | |
| \(10^6\) | |
| 65 |
Next, students turn their attention to fractions. In earlier grades, students made sense of equivalent fractions, added and subtracted fractions with the same denominator, and added tenths and hundredths. In this unit, they add and subtract fractions with different denominators. They see that the key is to find a common denominator and analyze different techniques for doing so.
Students then solve problems that involve measurement data (in halves, fourths, and eighths) that are displayed on line plots.
In the final section, students reason about the size of a product of fractions and the sizes of the factors. This work builds on the multiplicative comparison work in grade 4, in which students compared a whole number as “_____ times as many (or as much) as” another whole number. Here, students reason about products of a whole number and a fraction, without finding the value of each product. They use diagrams and expressions to support their reasoning.
Write \(>\), \(<\), or \(=\) in each blank to make true statements.
\(\frac{4}{5} \times 851 \, \underline{\hspace{0.7cm}} \, 851\)
\(\frac{1}{4} \, \underline{\hspace{0.7cm}} \, \frac{5}{5} \times \frac{1}{4}\)
\(\frac{99}{8} \times \frac{23}{22} \, \underline{\hspace{0.7cm}} \, \frac{99}{8}\)
\(\frac{100}{7} \times \frac{9}{13} \, \underline{\hspace{0.7cm}} \, \frac{9}{13}\)
In this unit, students learn about the coordinate grid, deepen their knowledge of two-dimensional shapes, and use the coordinate grid to study relationships of pairs of numbers in various situations.
Students learn about grids that are numbered in two directions. They see that the structure of a coordinate grid allows us to precisely communicate the location of points and shapes.
Students also continue to study two-dimensional shapes and their attributes. In IM Grade 3, they classified triangles and quadrilaterals by the presence of right angles and sides of equal length. In IM Grade 4, they learned about angles and parallel and perpendicular lines, which allowed students to further distinguish shapes. In this unit, students use these insights to make sense of the hierarchy of shapes.
Later in the unit, students analyze and generate numerical patterns based on pairs of rules and graph pairs of numbers on the coordinate grid. They also interpret points on the coordinate grid in terms of situations, plot points to better understand the relationship between two sets of numbers, and use the coordinate grid to solve problems.
In this unit, students revisit major work and fluency goals of the grade, applying their learning from the year.
In Section A, students deepen their understanding of the standard algorithm for multiplication and practice using it to find the value of products. They also revisit algorithms that use partial quotients to divide whole numbers. In Section B, students solve real-world problems about volume and have opportunities to model with mathematics.
The base of the Great Pyramid of Giza is a square.
Each side of the base is 230 meters long.
The pyramid is now 137 meters tall.
If the pyramid was shaped like a rectangular prism,
what would be the volume of the prism?
Section C focuses on operations with decimals and fractions. In the final section, students review major work of the grade as they create activities in the format of the warm-up routines they have encountered throughout the year (Notice and Wonder, Estimation Exploration, Number Talk, True or False? and Which Three Go Together?).
The sections in this unit are standalone sections, not required to be completed in order. Within a section, lessons can also be completed selectively and without completing prior lessons. The goal is to offer ample opportunities for students to integrate the knowledge they have gained and to practice skills related to the expected fluencies of the grade.
The number of days includes two assessment days per unit. The upper bound of the range includes optional lessons.
In the unit dependency chart, an arrow indicates that a particular unit is designed for students who already know the material in a previous unit. Reversing the order of the units would have a negative effect on mathematical or pedagogical coherence.
The following chart shows unit dependencies across the curriculum for IM Grades 3–8.
Section Dependency Diagrams
In the section dependency charts, an arrow indicates the prior section that contains content most directly designed to support or build toward the content in the current section.
IM v.360 organizes each grade level into eight or nine units that each address a major concept and a group of related standards. The unit titles communicate the major concepts that are covered in each grade level.
One way to visualize the content connections is by mapping where each domain of the California Common Core State Standards for Mathematics is covered in IM v.360. Each unit generally addresses several related standards within a primary domain, while also making connections to relevant standards in other supporting domains. This structure supports the vertical alignment of the curriculum as a whole. The domain connections diagrams for each grade band demonstrate that the architecture of the curriculum considers more than simply covering individual standards one by one.
All domain-related information has been coded by color/shape to demonstrate similarities and progressions across grade bands. The key is as follows:
This chart shows the primary domain addressed in each unit. Other supporting domains are not shown here but are shown in the charts below.
The Counting and Cardinality (CC) domain, while specific to Kindergarten, underlies the Operations and Algebraic Thinking (OA) domain as well as Numbers and Operations in Base Ten (NBT). It is foundational for students’ work in subsequent grades.
K: The CC domain is present in every unit within the Kindergarten course and prepares students for the work they will do throughout Grade 1. These skills are essential for students to grasp concepts that emphasize the NBT and OA domains, such as adding and subtracting within 20 and the understanding of numbers to 99. Here, we’ve highlighted the domain of each unit in IM v.360 Grade 1 that is most affected by the Counting and Cardinality work of Kindergarten.
Operations and Algebraic Thinking (OA) is a central domain within each course of IM K–5 v.360.
K–2: In Kindergarten, students begin exploring the OA domain through addition and subtraction in Unit 4, which supports their understanding of composing and decomposing numbers up to 10 in Unit 5. In Grade 1, students build on their understanding by adding and subtracting within 20. Finally, in Grade 2, students explore adding and subtracting within 100. The grade band culminates with students applying their understanding of this domain in Grade 2 Unit 8.
3–5: In Grade 3, students are introduced to multiplication and relating multiplication to division. Students apply this work in Grade 4 by investigating factors and multiples, solving word problems, and exploring multiplicative comparison and measurement. In Grade 5, students use the OA domain in various contexts to find volume, examine place value patterns, and apply operations to decimals.
The Numbers and Operations in Base Ten (NBT) domain focuses on place value and operations ranging from multi-digit whole numbers to decimals up to the thousandths place.
K–2: The NBT domain is largely addressed in most units of Grades 1 and 2. In Kindergarten, students develop a strong understanding of numbers 0–20, which prepares them to work with numbers up to 99 in Grade 1. Here, students build familiarity with the base-ten system before adding within 100. Grade 2 furthers this understanding with a focus on adding and subtracting within 100, and continues moving students into numbers up to 1,000. Students finish Grade 2 with skills to add and subtract within 1,000.
3–5: In Grade 3, students start by working with whole numbers and addition and subtraction within 1,000. In Unit 4, they relate multiplication to division and use their knowledge of the place value system to multiply by multiples of 10. This work continues in Grade 4 as students apply the number system to larger multi-digit numbers in Unit 4 and multiply and divide multi-digit numbers in Unit 6. Grade 5 expands on and concludes these ideas in Units 4 and 5 where students explore place value patterns and decimal operations.
The Number and Operations—Fractions (NF) domain only applies to Grades 3–5, but it builds on the work in earlier grades in other domains.
3–5: The NF domain is first emphasized in Grade 3 when students begin to develop an understanding of fractions within the number system in Unit 5. This understanding continues to develop in Grade 4 as they compare fractions in Unit 2. In the next unit, students begin to multiply with fractions and relate fractions to decimals. In Grade 5, they add, subtract, multiply, and divide with fractions starting in Unit 2. This work prepares them to engage with the later Grade 5 concepts, multiplying and dividing fractions and more decimal and fraction operations.
In the Measurement and Data (MD) domain, students represent and interpret data, solve problems involving measurement, and work toward understanding concepts of perimeter, area, angle measures, and volume.
K–2: The MD domain is emphasized largely in Grades 1 and 2, while Kindergarten provides the foundational skills that students need in order to successfully develop key concepts. In Kindergarten, students work with classifying and comparing measurable attributes, including length. As they explore this domain in Grade 1, students learn concepts such as length measurements within 120 units and adding, subtracting, and working with data. In Grade 2, students build on that understanding by measuring length, practicing addition and subtraction on the number line, and adding, subtracting, and working with data.
3–5: Grade 3 lays a foundation for understanding geometric measurement with major concepts such as area and multiplication and two-dimensional shapes and perimeter. Grade 4 builds on this domain by exploring angles and angle measurement, and Grade 5 applies this work in Unit 1 as students are asked to find volume. In a similar trajectory, Grade 3 introduces students to different types of measurement, including length, time, liquid volume, and weight in Unit 6. Grade 4 builds on that work with multiplicative comparisons in Unit 5, and Grade 5 introduces conversions of these measures in Unit 6.
In the Geometry (G) domain, students work with lines, angles, and shapes. They partition, examine attributes, and classify shapes based on their properties.
K–2: Each course in this grade band devotes an entire unit to the Geometry domain where the bulk of the work is concentrated. In Kindergarten, students specifically explore flat and solid shapes throughout two units. Grade 1 continues to examine shapes with the addition of time. Finally, Grade 2 builds on the previous work in the grade band with a special emphasis on geometry, time, and money.
3–5: Starting in Grade 3, students classify two-dimensional shapes based on their properties and also calculate perimeter. Grade 4 further examines shapes by studying angles in Unit 7 and exploring the properties of two-dimensional shapes in Unit 8. In Grade 5, students begin building the foundation for future work by working with the first quadrant in the coordinate plane in Unit 7.
Each description of major concepts by grade level contains two tables to demonstrate how the units in IM v.360 map to California’s Big Ideas. The first table is organized by Big Idea and lists each unit that addresses its content. The second table is organized by unit title and lists each Big Idea that it addresses. These two tables share the same information in different formats to demonstrate the close alignment of IM v.360 and California’s Big Ideas. Each unit addresses at least one Big Idea, and each course covers all Big Ideas for the grade level.
In addition to California’s Big Ideas, the second table also showcases the California Common Core State Standards and Standards for Mathematical Practice that are central to each unit. The table lists standards that are addressed during that unit, though there may be additional standards that it builds on or builds toward. Similarly, while students have the opportunity to use all of the Standards for Mathematical Practice throughout each unit, the table highlights those that students are most likely to use. More details on content standards and Standards for Mathematical Practice can be found in the teacher materials for each lesson.
Each major concepts resource contains two exemplar lessons or activities that demonstrate how the curriculum directly supports other aspects of the California Framework. Please note that while language such as Content Connections and Drivers of Investigation may not be used to describe the examples, the lessons and activities have been intentionally chosen to address them across all courses.
The major concepts resources are intended to be viewed alongside the curriculum. Examples are referenced by their title and location in the curriculum rather than including the full text of every activity.
To get the most from the materials:
IM v.360 Grade 5 focuses on:
The diagram below links the major concepts in IM v.360 Grade 5 to the domains found in the California Common Core State Standards for Mathematics (CA CCSSM). Each shape represents a domain that is addressed within the major concept. The larger shapes represent the primary domain while the smaller shapes on the periphery represent secondary domains that are addressed. The arrows demonstrate how the major concepts are interconnected and build on each other.
|
Unit 2: Fractions as Quotients and Fraction Multiplication |
Mathematical Practices: MP1, MP6 CA CCSSM Standard: 5.NF.3 |
|
Summary: In this lesson, students explore the relationship between division and fractions as they draw on what they know to make sense of the real-world situation of equally sharing sandwiches. The work in this lesson builds on their understanding of division and fractions and builds toward their understanding of operations with fractions. |
|
|
Unit 6: More Decimal and Fraction Operations |
Mathematical Practice: MP6 CA CCSSM Standards: 5.MD.1, 5.NBT.1 |
|
Summary: In this activity, students solve multi-step distance problems using centimeters, meters, and kilometers and think about which units are most helpful for communicating distances that they are familiar with. The work in this lesson builds on their work with multiplication, place value patterns, and decimal operations. |
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| Plotting Patterns |
Telling a Data Story |
Factors and Groups |
Modeling | Fraction Connections |
Seeing |
Powers and Place Value |
Layers of Cubes |
Shapes on a Plane |
| Unit 3 Units 6–7 |
Unit 7 | Units 1–2 Units 4–7 |
All units | Units 2–6 | Unit 1 Units 4–7 Unit 7 |
Units 1–2 Units 5–6 |
Unit 1 Unit 4 Unit 6 |
Unit 7 |
| IM v.360 Grade 5 Major Concepts |
CA CCSSM Domains* |
California’s Big Ideas | CA Standards | MPs |
|---|---|---|---|---|
| Unit 1: Finding Volume |
OA MD |
Factors and groups Modeling Seeing division Powers and place value Layers of cubes |
MD.3
MD.4 MD.5 OA.1
OA.2 |
MP1 MP2 MP3 MP6 MP7 |
| Unit 2: Fractions as Quotients and Fraction Multiplication |
OA NF |
Factors and groups Modeling Fraction connections Powers and place value |
NF.3
NF.4 OA.1
OA.2 |
MP1 MP2 MP3 MP6 MP7 |
| Unit 3: Multiplying and Dividing Fractions |
NF | Plotting patterns Modeling Fraction connections |
NF.4
NF.6 NF.7
|
MP2 MP3 MP7 MP8 |
| Unit 4: Wrapping Up Multiplication and Division with Multi-digit Numbers |
OA NBT NF MD |
Factors and groups Modeling Fraction connections Seeing division Layers of cubes |
MD.3
MD.5 NBT.5 NBT.6
NF.3 OA.2 |
MP2 MP3 MP4 MP6 MP7 |
| Unit 5: Place Value Patterns and Decimal Operations |
OA NBT NF |
Factors and groups Modeling Fraction connections Seeing division Powers and place value |
NBT.1
NBT.3 NBT.4 NBT.7 NF.4
NF.7.b OA.1 OA.2 |
MP2 MP3 MP5 MP6 MP7 MP8 |
| Unit 6: More Decimal and Fraction Operations |
OA NBT NF MD |
Plotting patterns Factors and groups Modeling Fraction connections Powers and place value Layers of cubes |
MD.1
MD.2 NBT.1 NBT.2 OA.1 NF.1
NF.2 NF.4 NF.5 |
MP2 MP3 MP6 MP7 MP8 |
| Unit 7: Shapes on the Coordinate Grid |
OA NBT G |
Plotting patterns Telling a data story Factors and groups Modeling Seeing division Shapes on a plane |
G.1
G.2 G.3 G.4 NBT.7
OA.2 OA.3 |
MP2 MP6 MP7 MP8 |
*bolded text indicates primary domain