Algebro

Grade 6 B.E.S.T. benchmarks

The 40 benchmarks FDOE assesses on the FAST Grade 6 Mathematics. For each one: FLDOE's language word for word, how Algebro reads it, and how we built the questions.

Last updated: October 8, 2026

How to read a benchmark

  1. FLDOE language. Copied exactly from FDOE's documents, with the source and page. Nothing in this box is ours.
  2. How Algebro reads it. What we think the benchmark asks, and the calls we made where FDOE leaves room.
  3. How we built the questions. What students actually see, and counts measured from the question banks.

Calculator on this test: four-function. About the sources.

Reporting categories

Select a benchmark to open it.

Number Sense and Operations

33-42% of the FAST Grade 6 Mathematics

MA.6.NSO.1.1Define, plot, order & compare rational numbersExtend previous understanding of numbers to define rational numbers. Plot, order and compare rational numbers.

1. FLDOE language, word for word

Benchmark MA.6.NSO.1.1: Extend previous understanding of numbers to define rational numbers. Plot, order and compare rational numbers.

Clarification 1: Within this benchmark, the expectation is to plot, order and compare positive and negative rational numbers when given in the same form and to plot, order and compare positive rational numbers when given in different forms (fraction, decimal, percentage).

Clarification 2: Within this benchmark, the expectation is to use symbols (<, > or =).

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 6; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 72; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

The benchmark has three verbs: plot, order and compare. A student places rational numbers on a number line, puts a list in order, and writes <, > or = between two numbers. FDOE splits the work by form. When the numbers share a form (all integers, all decimals or all fractions), negatives are in play, and FAST items of that kind must include at least one negative value. When the forms are mixed (a fraction, a decimal and a percent), the numbers are positive and every fraction must convert to a terminating decimal.

For practice, that means two different jobs: reading a number line's scale when negatives are on it, and converting forms so they can be lined up.

Our call: Four skills, split by form

We practice the benchmark as four skills: plotting on a number line, ordering, comparing two numbers with a symbol, and comparing or ordering positive numbers written in different forms. Whenever the numbers share a form, the item carries a negative value. When the forms differ (the fourth skill, and the hardest comparisons, which set a fraction beside a decimal such as 5/8 and 0.63), the numbers are positive and every fraction terminates, as FDOE's rules for mixed forms say. The split lets a student's results show which of the four needs work, for example reading the number line versus converting 5/8.

Our call: Plotting a positive number

FDOE asks for a negative value in every same-form plot, order or compare item. When the number to plot or read in such an item is positive, such as 2.3, we meet the rule with the number line itself: it runs below zero, so the student has to find 0 first instead of counting from the left end of the line. Every other same-form item shows a negative number in the question or on its figure. Plots in the mixed-forms skill are positive by FDOE's rule, so their line may start at 0 (FAST practice plots 3/8 on a line from 0 to 2).

Our call: One method for mixed forms

To compare a fraction, a decimal and a percent, students convert every value to a decimal (a fraction is its numerator divided by its denominator, a percent is divided by 100) and then compare decimals. The FAST allows a calculator on this benchmark, so each conversion is one division line, never long division, and every explanation uses that single route rather than a common-denominator method alongside it.

3. How we built the questions

Plotting starts with reading. The easiest questions show four lettered points on a number line and ask which one is at −3, or which one is the opposite of −4. Then the student plots a decimal or a fraction on an interactive number line marked in halves, fifths, fourths, tenths or eighths, so the first job is working out what one tick is worth. A few review questions give a direction and a distance (6 units left of 0, 3 units above 0 on a vertical line) and ask for the numbers.

Ordering and comparing climb from integers to decimals to fractions, sometimes with the values given only as points on a number line. Decimal comparisons always involve a negative, so the place-value trap turns around: −0.8 is less than −0.79. Comparison questions ask for the symbol, or for the one statement with both the right comparison and the right reason ("−3 > −7, because −3 is to the right of −7"). The hardest comparisons set a positive fraction beside a positive decimal (5/8 and 0.63), and the mixed-form questions order a fraction, a decimal and a percent, with fractions such as 3/8, 7/20 and 13/16, never 1/3 or 2/3.

Wrong answers come from real mistakes: picking the opposite of the target point, counting from the left end of the line instead of from 0, ordering negatives by their distance from 0, treating a longer decimal as a larger one, and reading 1/2 as 0.12. Error-analysis questions show a student's plotted point or ordered list and ask what went wrong. The coverage gate requires a number line on at least a quarter of the practice and quiz questions, and a lint rule fails any same-form item with no negative value and any mixed-form item with a negative value or a repeating fraction. FAST practice adds a two-part item that compares 3/8 with 0.4 and then plots 3/8, and ordering items followed by a count ("how many of the three numbers in the list are greater than 0.6?").

Practice and quiz bank: 414 questions

Formats:
Multiple choice 52%, Drop-down (editing task choice) 27%, Graphing (GRID) 15%, Multiselect 5%, Equation editor 1%, Matching 0%
Show a figure, table or graph:
32% (number line 32%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.1.2Represent quantities with opposite direction on a number lineGiven a mathematical or real-world context, represent quantities that have opposite direction using rational numbers. Compare them on a number line and explain the meaning of zero within its context.

1. FLDOE language, word for word

Benchmark MA.6.NSO.1.2: Given a mathematical or real-world context, represent quantities that have opposite direction using rational numbers. Compare them on a number line and explain the meaning of zero within its context.

Example: Jasmine is on a cruise and is going on a scuba diving excursion. Her elevations of 10 feet above sea level and 8 feet below sea level can be compared on a number line, where 0 represents sea level.

Clarification 1: Instruction includes vertical and horizontal number lines, context referring to distances, temperatures and finances and using informal verbal comparisons, such as, lower, warmer or more in debt.

Clarification 2: Within this benchmark, the expectation is to compare positive and negative rational numbers when given in the same form.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 7; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 72; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Here the student uses signed numbers to describe opposite directions: 10 feet above sea level and 8 feet below it, money saved and money owed, a temperature above or below zero. The student also says what 0 stands for in that situation, and compares the two quantities. FDOE's clarifications name vertical and horizontal number lines, contexts of distance, temperature and money, and everyday comparisons such as "lower", "warmer" or "more in debt".

The limit that matters most is "Items will not require the student to perform operations." This benchmark is about representing, comparing and interpreting a signed quantity, not computing with it. Computing belongs to MA.6.NSO.4.1.

Our call: Every position states its sign convention

When a question places a diver, a submarine, a hiker, a parking level or a floor, the stem says which direction is positive or negative ("elevations below sea level are negative") and where 0 is, except in the middle-level questions, where naming what 0 represents is the student's job. Questions ask for a position or an elevation, never a depth. "A depth of 60 feet" is naturally positive, so a question keyed to −60 would mark a student with the right idea wrong.

Our call: Comparing without computing

FDOE rules out operations, so no question here asks for a sum or a difference, and no answer choice needs one to be judged. Two quantities are compared by where they sit on a number line (−3 is above −8, so noon was warmer), and two values are opposites because they are the same distance from 0 on opposite sides, not because they add to 0.

3. How we built the questions

The easiest questions give a quantity, often only as a lettered point on a number line, and ask for its opposite and what that opposite means: a diver shown at −22 feet has the opposite +22, which is 22 feet above the surface. Other forms of the same question plot the opposite on an interactive number line, match quantities to their opposites, or complete a sentence ("the opposite value is −45, which means a loss of $45"). Many elevation and temperature questions use a vertical number line, which FDOE's clarification names.

The middle level tells a short story in words, says which direction is positive, and asks for three things: each quantity as a signed number, what 0 represents, and a comparison in everyday words. A pelican 9 feet above sea level is +9 and a fish 14 feet below it is −14, 0 is sea level, and the fish is lower than the pelican. The stories cover temperatures (warmer, colder), elevations and floors (higher, lower), money owed (more in debt, less in debt) and positions on an east-west trail. Wrong choices flip a sign, use the other quantity's number, call 0 the freezing point on the Fahrenheit scale, or compare 8 and 3 instead of −8 and −3.

The top level plots two values and asks whether they are opposites, with a reason: a submarine at −30 feet and a helicopter at +30 feet are both 30 feet from sea level, in opposite directions. The wrong choices include "a positive value and a negative value are always opposites" and "they are not opposites, because −30 is less than +30". The coverage gate requires a number line on at least a quarter of these questions, and a lint rule fails any item on this benchmark that asks for a sum or prints an arithmetic operation. FAST practice asks the same things, with its own stories.

Practice and quiz bank: 114 questions

Formats:
Multiple choice 51%, Drop-down (editing task choice) 26%, Equation editor 10%, Multiselect 7%, Graphing (GRID) 4%, Matching 2%
Show a figure, table or graph:
35% (number line 35%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.1.3Interpret & find absolute value of rational numbersGiven a mathematical or real-world context, interpret the absolute value of a number as the distance from zero on a number line. Find the absolute value of rational numbers.

1. FLDOE language, word for word

Benchmark MA.6.NSO.1.3: Given a mathematical or real-world context, interpret the absolute value of a number as the distance from zero on a number line. Find the absolute value of rational numbers.

Clarification 1: Instruction includes the connection of absolute value to mirror images about zero and to opposites.

Clarification 2: Instruction includes vertical and horizontal number lines and context referring to distances, temperature and finances.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 7; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 73; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Absolute value is distance from zero. A student finds |−9| = 9, reads it as "9 units from 0", and uses it to say which of two numbers, or two readings in a story, is farther from zero. FDOE's clarifications connect absolute value to opposites and to mirror images about zero, and name temperature, distance and money as contexts.

The assessment limit is "Items will not require the student to perform arithmetic operations." Adding or subtracting absolute values is the job of MA.6.NSO.1.4. Here the student only finds and compares them, for integers and also for fractions and decimals.

Our call: Comparing is not computing

FDOE rules out arithmetic but not comparison. We read that as allowing |−12| against |7| with <, > or =, since the student only sizes up two distances. No question on this benchmark adds or subtracts absolute values, and no answer choice asks the student to judge a subtraction; "how far apart are they?" waits for MA.6.NSO.1.4.

Our call: Distance, not order

Every question here asks about absolute value or distance from zero. Plain comparing and ordering of signed numbers belongs to MA.6.NSO.1.1, so the review questions that order a list ask for closest-to-farthest from 0, not least-to-greatest, and the explanations set the two orders side by side (−7 < −2, yet −7 is farther from 0).

3. How we built the questions

The easiest questions ask for |n| directly, or ask how many units a number is from 0, as a typed answer, a choice of four, a point to plot on a number line, or a match between numbers and their absolute values. Select-all questions ask for every number exactly 4 units from zero, which has to include both 4 and −4. The next set moves to decimals, fractions and mixed numbers, such as |−3.5| and |−1 1/2|.

Comparison questions ask which of two numbers is farther from zero and why, first as bare numbers on a number line, then in context: which day's temperature, −18°F or 15°F, is the more extreme departure from 0°F. In the practice and quiz questions every choice gives a reason written with absolute values, and one choice is true. The wrong ones are the beliefs students bring: a negative or a positive number is always farther from zero, the greater number has the greater absolute value (4 > −7, so |4| > |−7|), and of two readings below zero the one closer to zero has the greater absolute value. When a story compares two readings, each name appears in two of the four choices, and the wrong choices are worded briefly in some questions and in full in others, so neither a name nor the length of a choice points to the answer.

A further set orders numbers from closest to farthest from 0, picks the city whose temperature is farthest from 0°F, and compares two absolute values, such as |−1/4| and |−3/4|. A lint rule fails any item on this benchmark that prints an arithmetic operation or asks no distance question, any reasoned set where only the key carries absolute-value bars, and any story whose two names do not each appear in two choices. FAST practice adds two-part items (find |−23|, then choose what it represents) and a reverse question: a number's absolute value is 27 and the number is less than zero, so what is the number?

Practice and quiz bank: 116 questions

Formats:
Multiple choice 54%, Equation editor 31%, Drop-down (editing task choice) 8%, Multiselect 3%, Graphing (GRID) 2%, Matching 2%
Show a figure, table or graph:
20% (number line 20%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.1.4Solve real-world problems involving absolute valueSolve mathematical and real-world problems involving absolute value, including the comparison of absolute value.

1. FLDOE language, word for word

Benchmark MA.6.NSO.1.4: Solve mathematical and real-world problems involving absolute value, including the comparison of absolute value.

Example: Michael has a lemonade stand which costs $10 to start up. If he makes $5 the first day, he can determine whether he made a profit so far by comparing |−10| and |5|.

Clarification 1: Absolute value situations include distances, temperatures and finances.

Clarification 2: Problems involving calculations with absolute value are limited to two or fewer operations.

Clarification 3: Within this benchmark, the expectation is to use integers only.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 8; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 73; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

This benchmark puts absolute value to work. Students compare absolute values in context (a reading of −18°F against 5°F, a basement 11 floors down against a penthouse 9 floors up) and calculate with them, as in |−15| − |8| + 2. FDOE keeps the benchmark to integers and limits calculations to two operations or fewer.

FDOE's example shows the point: comparing |−10| and |5| tells a lemonade seller whether a stand that cost 10 dollars to start has made a profit after earning 5. The contexts are distance, temperature and money.

Our call: Two skills

We split the benchmark into comparing absolute values in context and calculating with absolute value. Comparing asks what distance from zero means in a situation; calculating asks when to drop the signs in an expression. A student can do one without the other, so each gets its own result.

Our call: Counting operations

We count the arithmetic signs, not the absolute value bars, against FDOE's limit of two operations. |−15| − |8| + 2 has two, and so does |−12 + 5| − |−7|: one inside the bars and one between them. Every number in the bank's questions for this benchmark is an integer.

3. How we built the questions

The comparing skill starts with bare pairs: which of −7 and 5 has the greater absolute value, with the reason as part of the answer. Every choice reasons with absolute values, briefly or in full, so a wrong one reads "5, because 5 is positive, so |5| > |−7|" or "2, because positive numbers always have the greater absolute value, so |2| > |−9|". Then two readings appear on a vertical number line (a thermometer, or heights above and below sea level), and the student says which is colder, farther from sea level or closer to it, and by how much. The distance across zero is |a| + |b|, and a standard wrong answer subtracts the two sizes instead (7°F apart instead of 23°F). The top level asks for every reading within a limit, such as depths no more than 40 feet below sea level, where −28 is inside the limit and −42 is outside it.

The calculating skill evaluates expressions such as |−10| + |−3| and |−15| − |8| + 2, typed or chosen from four. Distractors come from subtracting the sizes, multiplying, and keeping the negative signs. Select-all and matching items ask which expressions equal a given value.

The hardest calculating questions put a sum inside the bars, as in |−12 + 5| − |−7|: simplify inside first, then take both absolute values, then subtract. A lint rule fails any item on this benchmark with more than two operations in one expression, or with a fraction or a decimal. FAST practice mirrors both skills: a select-all by absolute value followed by a typed value, a colder-by-how-many question on a vertical number line, within-the-limit readings for a cable, a crane load and a water tank alarm, and expressions such as |5 − 17| − |−7|.

Practice and quiz bank: 216 questions

Formats:
Multiple choice 55%, Equation editor 26%, Multiselect 17%, Matching 1%, Drop-down (editing task choice) 1%
Show a figure, table or graph:
19% (number line 19%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.2.1Multiply & divide positive multi-digit decimals (to thousandths)Multiply and divide positive multi-digit numbers with decimals to the thousandths, including using a standard algorithm with procedural fluency.

1. FLDOE language, word for word

Benchmark MA.6.NSO.2.1: Multiply and divide positive multi-digit numbers with decimals to the thousandths, including using a standard algorithm with procedural fluency.

Clarification 1: Multi-digit decimals are limited to no more than 5 total digits.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 8; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 73; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students multiply and divide positive decimals, to the thousandths, with fluency. FDOE caps multi-digit decimals at five total digits, and a decimal that is multiplied or divided by 0.1 or 0.01 must go to at least the hundredths place.

The benchmark names the standard algorithm, but the FAST allows a calculator for it. On the test, then, the skill shows up as knowing where the decimal point belongs and whether an answer makes sense, not only as carrying out the steps.

Our call: The algorithm, one line at a time

Our explanations follow the standard algorithm's logic in short steps: multiply as whole numbers, count the decimal places in the factors, place the point. Division first multiplies both numbers by 10 or 100 so the divisor is a whole number, then divides in one line. We never show a long-division layout, and a lint rule fails any explanation that carries one.

Our call: Estimation for a calculator test

Because the FAST gives students a calculator here, we added questions a calculator cannot answer for them: pick the estimate that checks 35.8 ÷ 6, or place the decimal point when a calculator shows the digits 1125 for 0.125 × 9.

3. How we built the questions

Multiplication starts with a decimal times a whole number (4.5 × 6), then a decimal times a decimal (3.75 × 2.4, 0.125 × 5.6). Students type the product, choose it from four, match expressions to products, or fill in two dropdowns: the number of decimal places in the factors, then the placed product. Division runs the same way, from 14.4 ÷ 6 to 4.125 ÷ 0.75.

A lint rule checks both FDOE limits on every practice, quiz and FAST practice question, and no question breaks either one.

The top level puts the operation in a short story: ribbon at 12.50 dollars a yard, or how many complete 1.5-meter pieces can be cut from 8.4 meters of wire, where the student has to drop the remainder. FDOE lists this benchmark as a mathematical context only, so these stories go beyond the FAST's format.

Wrong answers are slips students make. Many come from the decimal point: the point one place off, in one direction per question (102 for 10.2 in one, 3.01 for 30.1 in another); the digits with no point at all; or a divisor scaled without scaling the dividend. In a story, the larger point slip appears only when its total stays believable: never more than one unit costs for less than one unit, and at most 500 dollars for a purchase, 200 dollars for part of a day's pay or 50 miles for a runner or cyclist. Others add instead of multiplying, multiply instead of dividing, or use only the whole-number part of a number (3.65 × 8 for 3.65 × 8.4, or 9 + 0.4 = 9.4 for 3.4 × 3). Estimates round too far or cut the decimals off, and counts of complete pieces keep the leftover or round it up. Error-analysis questions show a student's answer, such as 3.4 × 6 = 2.04, and ask which statement describes the mistake. FAST practice adds two-step purchase problems (the total, then the change from a bill) and a price-per-pound comparison.

Practice and quiz bank: 218 questions

Formats:
Multiple choice 62%, Equation editor 27%, Drop-down (editing task choice) 6%, Matching 3%, Multiselect 2%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.2.2Multiply & divide positive fractions, including mixed numbersExtend previous understanding of multiplication and division to compute products and quotients of positive fractions by positive fractions, including mixed numbers, with procedural fluency.

1. FLDOE language, word for word

Benchmark MA.6.NSO.2.2: Extend previous understanding of multiplication and division to compute products and quotients of positive fractions by positive fractions, including mixed numbers, with procedural fluency.

Clarification 1: Instruction focuses on making connections between visual models, the relationship between multiplication and division, reciprocals and algorithms.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 9; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 73; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students multiply and divide positive fractions and mixed numbers with fluency. FDOE's clarification ties the work to visual models, to the link between multiplication and division, and to reciprocals.

The assessment limits shape the numbers. When a fraction is multiplied by a fraction, at least one denominator is greater than 20. No item divides a unit fraction by a whole number or a whole number by a unit fraction; those are the grade 5 cases in MA.5.FR.2.4.

Our call: Four skills

We split the benchmark into multiplying fractions, multiplying mixed numbers, dividing fractions and dividing mixed numbers. Mixed numbers add a conversion before and after the operation, and division adds the reciprocal, so each shows up as its own result for the student.

Our call: Which products need a denominator above 20

We apply the limit to every product of two fractions, and we count a mixed number as a fraction: 1 1/3 × 9/28 and 2 2/3 × 1 5/32 both carry one. A mixed number times a whole number (2 1/2 × 3) is not a fraction times a fraction, so it keeps small denominators, and division items fall outside the limit. The factors are chosen to cancel (7/8 × 16/21 = 2/3), so the large denominator tests simplifying, not long multiplication.

Our call: Models stay in instruction

FDOE mentions visual models in an "Instruction focuses on" clarification, not in the assessment limits, and our items are symbolic. The number sense that models build is tested directly instead: "Without calculating, is 2/3 × 21/25 greater or less than 2/3?", with the reason ("multiplying by a number less than 1 makes a number smaller") as part of the answer.

3. How we built the questions

Each skill starts with bare computation: 2/3 × 3/25, 2 1/2 × 3, 1 1/3 × 9/28, 5/8 ÷ 3/4, 4 1/3 ÷ 2/3. Students type the answer, choose it from four, build it in numerator and denominator dropdowns, or match expressions to values. Typed answers are graded by value, so 15/2 and 7 1/2 both earn credit. The explanations convert mixed numbers first, flip the divisor and multiply, then simplify.

Word problems come next: a fraction of a quantity (8/21 of a recipe that uses 3/4 cup of sugar, or 14/27 of a 4 1/2-mile trail), the area of a small plate or tile measured to the 1/32 inch (2 2/3 by 1 5/32 inches), and "how many complete pieces fit", where a 5 1/4-foot board cut into 1 3/4-foot shelves gives a count, not a fraction. The size-reasoning questions sit alongside these.

Wrong answers are errors students make, such as adding instead of multiplying, multiplying the numerators but keeping the first denominator, cross-multiplying, flipping the first fraction instead of the second, multiplying without flipping, multiplying only the whole-number parts of mixed numbers, and giving the part left over instead of the part used. In a count of complete pieces they include keeping or rounding up the leftover and dividing only the whole-number parts. Error-analysis questions show one of these and ask for the true statement.

Both limits hold in practice, quiz and FAST practice questions, and a lint rule checks them: it fails any fraction-by-fraction product with no denominator above 20 and any unit fraction divided by a whole number or the reverse. FAST practice adds two-part items that ask for the expression first ("which expression gives the number of portions?"), then the value.

Practice and quiz bank: 418 questions

Formats:
Multiple choice 63%, Equation editor 29%, Drop-down (editing task choice) 4%, Matching 2%, Multiselect 1%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.NSO.2.3Multi-step real-world problems with positive decimals or fractionsSolve multi-step real-world problems involving any of the four operations with positive multi-digit decimals or positive fractions, including mixed numbers.

1. FLDOE language, word for word

Benchmark MA.6.NSO.2.3: Solve multi-step real-world problems involving any of the four operations with positive multi-digit decimals or positive fractions, including mixed numbers.

Clarification 1: Within this benchmark, it is not the expectation to include both decimals and fractions within a single problem.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 9; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 73; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students chain operations to solve a real-world problem with positive decimals or positive fractions, including mixed numbers. FDOE keeps the two apart: no problem mixes decimals and fractions.

The assessment limits are specific. Items use at least two different operations, and not only addition and subtraction. Decimal items include a value to at least the hundredths. When fractions are multiplied, one denominator is greater than 20. Items give no numerical expression to evaluate, and the context will not be money, perimeter or area.

Our call: Decimals and fractions as two skills

Because FDOE never mixes the two in one problem, we practice them as separate skills: multi-step problems with decimals and multi-step problems with fractions. Each has its own problem structures, and a student's results show which number type is the weak one.

Our call: Measurement stories, and no percents

With money ruled out, every story is about mass, liquid volume, distance, time or a rate: kilograms of flour, liters in a tank, kilometers ridden. Tax, tip and discount problems went with the money; they are also grade 7 percent work. Where a problem needs a part of an amount, it uses a decimal factor instead ("0.4 times as far as the laps"), which is the decimal multiplication this benchmark practices.

Our call: Which fraction products need a denominator above 20

We apply the limit when a fraction multiplies a fraction, as in 7/24 of the 3/4 pound of cheese on a pizza. A fraction of a whole number (5/8 of 16 cookies) or a mixed number times a whole number (a double batch) is not a fraction times a fraction, so it keeps everyday denominators.

3. How we built the questions

The decimal skill uses a dozen problem structures: the total of several counted amounts (2 backpacks at 3.25 kilograms plus a 1.5-kilogram bag), what is left after some is used, a decimal part of an amount added or taken away, the difference between two rate-times-time amounts (a car and a truck over 6 hours), a rate that changes after the first hours, and a total shared equally. Every problem gives a value to the hundredths and uses at least two different operations, one of them multiplication or division.

The fraction skill has three main structures: take a fraction of a whole and find what is left (16 cookies, 5/8 eaten); combine two mixed-number amounts and then multiply or divide by a whole number (6 1/2 feet minus 2 1/4 feet, cut into 2 equal shelves); and find a whole from a part, then adjust it (a tank 3/5 full holds 18 gallons, then 1/4 of its capacity is drained). Answers print as fractions or mixed numbers (10 1/2 gallons). A typed 10.5 still counts unless the question asks for a fraction or mixed number; then only that form scores.

Wrong answers are slips students make, such as stopping one step early, giving the part instead of the rest, taking the fraction of the current amount instead of the capacity, dividing where the story multiplies, and slipping the decimal point in a factor (0.08 read as 0.8). Error-analysis questions show a student's answer and ask what went wrong.

FAST practice follows the same limits. A lint rule checks every question for money, perimeter or area words, a decimal item with no hundredths, a problem that uses one operation or only addition and subtraction, a small-denominator fraction product, a printed numerical expression, and decimals and fractions mixed anywhere in one problem, answer choices and explanation included.

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MA.6.NSO.3.1Find the greatest common factor & least common multipleGiven a mathematical or real-world context, find the greatest common factor and least common multiple of two whole numbers.

1. FLDOE language, word for word

Benchmark MA.6.NSO.3.1: Given a mathematical or real-world context, find the greatest common factor and least common multiple of two whole numbers.

Example 1: Middleton Middle School's band has an upcoming winter concert which will have several performances. The bandleader would like to divide the students into concert groups with the same number of flute players, the same number of clarinet players and the same number of violin players in each group. There are a total of 15 students who play the flute, 27 students who play the clarinet and 12 students who play the violin. How many separate groups can be formed?

Example 2: Adam works out every 8 days and Susan works out every 12 days. If both Adam and Susan work out today, how many days until they work out on the same day again?

Clarification 1: Within this benchmark, expectations include finding greatest common factor within 1,000 and least common multiple with factors to 25.

Clarification 2: Instruction includes finding the greatest common factor of the numerator and denominator of a fraction to simplify the fraction.

Context: Both · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 10; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 74; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the greatest common factor and least common multiple of two whole numbers, bare or in a story. FDOE's examples show the classic uses: splitting 15 flutes, 27 clarinets and 12 violins into identical groups (GCF), and finding when workouts every 8 days and every 12 days fall on the same day again (LCM).

The clarification sets the ranges: GCF within 1,000 and LCM with factors up to 25. In a story, much of the difficulty is deciding which of the two the question wants.

Our call: Three skills

We practice GCF, LCM, and GCF and LCM in real-world problems as three skills. The third exists because a student who can compute both still has to recognize that "identical groups, none left over" calls for a GCF and "when will they happen together again" calls for an LCM.

Our call: Two numbers, 25 or less, for every LCM

The benchmark says two whole numbers, and the clarification caps LCM factors at 25, so every LCM question uses a pair of numbers no larger than 25. That includes each candidate in "the LCM of 14 and n is 84; which could n be?" questions, since the student tests every choice as an input, and the pair in an error analysis where the student found the LCM instead of the GCF. FDOE's band example groups three instruments, but it is a GCF story; an earlier version of the bank used it to justify three-number LCMs, and we replaced them with pairs in September 2026.

3. How we built the questions

GCF questions are solved two ways in the explanations: listing factors, or prime factorization with the lowest power of each common prime. Tasks include typing the GCF, matching pairs to their GCFs, selecting every common factor of 24 and 40, and reverse questions ("the GCF of 12 and n is 4; which could n be?"). Stories cover identical bags or bouquets, the largest square that tiles a 48 cm by 36 cm rectangle, and kits that ask for both the number of groups and what goes in each. Every number a student works with in a GCF question stays under FDOE's 1,000; the largest numbers a student has to test are the candidates in reverse questions, up to 252.

LCM questions list multiples for small pairs and use prime factorization, the highest power of each prime, for pairs where listing runs long, such as 18 and 24 or 21 and 24. Stories are events that repeat on a schedule (buses, lights, runners on a track) and packages sold in different counts (hot dogs in 8s, buns in 6s).

Wrong answers match the real mix-ups: the LCM when the GCF was asked (and the reverse), a common factor that is not the greatest, a factor of only one number, one of the two numbers itself, the product of the two numbers offered as their LCM, and the lower power of a prime taken where the LCM needs the higher one. Method questions ask which to use and why, with the reason built into each choice. Lint rules flag any "identical groups, none left over" story that does not ask for the greatest number, and any LCM question with a third number or a number above 25. FAST practice adds two-part items: choose GCF or LCM with a reason, then solve.

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MA.6.NSO.3.2Rewrite a sum of composites using a common factor (distributive)Rewrite the sum of two composite whole numbers having a common factor, as a common factor multiplied by the sum of two whole numbers.

1. FLDOE language, word for word

Benchmark MA.6.NSO.3.2: Rewrite the sum of two composite whole numbers having a common factor, as a common factor multiplied by the sum of two whole numbers.

Clarification 1: Instruction includes using the distributive property to generate equivalent expressions.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 10; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 74; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

The skill is the distributive property run backward on numbers: rewrite 24 + 36 as a common factor times a sum, 12(2 + 3). FDOE's clarification adds using the distributive property to write equivalent expressions, so expanding 5(3 + 7) into 15 + 35 belongs here too.

The only limit is that the common factor will not exceed 1,000. The benchmark text asks for a common factor, not necessarily the greatest one, and for a sum of two composite numbers that share a factor.

Our call: The greatest common factor

Every question that asks the student to factor asks for the greatest common factor, so each has one right answer, and the work connects to GCF practice in MA.6.NSO.3.1. When a student factors out a smaller common factor, as in 24 + 36 = 6(4 + 6), the error-analysis item describes it exactly: a common factor, but not the greatest. The rewrite is still true, and no item calls it false.

Our call: Both directions

Because the clarification includes generating equivalent expressions, we practice expanding as well as factoring. Expanded answers stay unsimplified: 5(3 + 7) becomes 15 + 35, not 50, because collapsing to a single number would hide whether the student distributed.

3. How we built the questions

Factoring questions ask for the rewrite of a sum such as 30 + 42 as the GCF times a sum, 6(5 + 7), as a choice of four, three dropdowns (the factor and the two addends), a select-all, or a matching set. At the top level the same sums come with a story, such as 30 square tiles and 42 round tiles set out in equal rows. Missing-number questions fill one blank: 16 + 40 = 8(2 + ?).

Expanding questions go the other way: which sum equals 4(5 + 9)? The hardest questions model a story with the distributive property: 12 plates each hold 2 tacos and 3 empanadas, so the total is 12(2 + 3).

Distractors are the classic slips: factoring out a common factor that is not the greatest, dividing only one addend by the factor (6(2 + 18) for 12 + 18) or subtracting the factor from an addend (15 + 35 = 5(10 + 7)), multiplying only the first term when expanding (6(4 + 7) = 24 + 7), adding the factor instead of multiplying (5(3 + 8) = 8 + 13), and writing digits side by side (45 + 49 for 4(5 + 9)). The menu for one addend never offers the other addend's value inside the parentheses, because 9(3 + 2) is as true as 9(2 + 3). Error-analysis questions show one of these and ask which statement is true. Lint rules check that every sum to be factored has two composite addends with a common factor, and that no common factor passes 1,000. FAST practice follows the same directions and adds two-part items that expand one expression and factor another.

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MA.6.NSO.3.3Evaluate positive rationals & integers with natural-number exponentsEvaluate positive rational numbers and integers with natural number exponents.

1. FLDOE language, word for word

Benchmark MA.6.NSO.3.3: Evaluate positive rational numbers and integers with natural number exponents.

Clarification 1: Within this benchmark, expectations include using natural number exponents up to 5.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 11; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 74; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students evaluate a power: a positive rational base raised to a natural-number exponent. FDOE sets exponents up to 5, and its assessment limit says items include "an expression having only a positive rational base and a natural number exponent", so fraction and decimal bases such as (3/4)² and 1.2² are squarely in scope alongside whole numbers.

The idea to secure is that the exponent counts how many times the base is used as a factor. Most of the common errors, like 6² = 12, come from losing that.

Our call: Positive bases only

The benchmark text names integers as well as positive rational numbers, but the assessment limit allows only a positive rational base. We read that as ruling out negative bases such as (−2)⁴ in practice and quizzes as well as FAST practice, so every base is a whole number, a fraction or a decimal. Until September 2026 the hardest questions used negative bases; they now combine fraction and decimal powers instead. Sign rules for products of negative numbers are practiced with MA.6.NSO.4.2.

3. How we built the questions

Questions start with a single power (5³, 13², then 0.4² and (2/3)³), typed or chosen from four. The next level combines two powers with a sum or difference (3⁴ − 2⁵), compares two powers with <, > or =, matches powers to values, or selects every power equal to a given number. At the top, two fraction or decimal powers are combined ((1/2)³ + (1/4)², 1.5² − 0.5³), three powers are combined left to right (5² − 3² + 2⁴, 10² − 2⁵ − 0.4²), and fraction, decimal and mixed-number bases appear in area and volume: a square tile with 1 1/2-foot sides, a cube-shaped box with 0.4-meter edges.

Wrong answers come from treating the exponent as a factor (6² = 12, (2/3)³ = 6/3), switching the base and the exponent, using the base one time too many or too few, raising only the numerator of a fraction ((3/4)² = 9/4), putting the decimal point in the wrong place (0.2³ = 0.8), adding fractions across, and taking 3² + 2⁴ away all at once in 5² − 3² + 2⁴. Error-analysis questions show a student's answer and ask which statement is true.

Powers come first and then the terms combine left to right, so the explanations evaluate every power on its own line before combining. FDOE lists this benchmark as a mathematical context only, so the tile and box stories go beyond the FAST's format. FAST practice keeps to bare expressions, with whole-number bases at the first two levels and fraction and decimal bases at the top, such as (1/2)³ + (3/4)² and 0.5² + 1.2² − 0.1³. Lint rules fail any item with an exponent above 5 or a negative base.

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MA.6.NSO.3.4Express composite whole numbers as products of prime factorsExpress composite whole numbers as a product of prime factors with natural number exponents.

1. FLDOE language, word for word

Benchmark MA.6.NSO.3.4: Express composite whole numbers as a product of prime factors with natural number exponents.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 11; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 74; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students write a composite whole number as a product of prime factors, using exponents for repeated factors: 72 = 2³ × 3². FDOE gives no clarifications or assessment limits beyond the benchmark text, so the size of the numbers and the form of the answer are ours to set.

The skill feeds directly into GCF and LCM (MA.6.NSO.3.1) and into exponents (MA.6.NSO.3.3).

Our call: Factorization first, GCF and LCM second

Because factorization is the tool behind GCF and LCM, a smaller set of questions here uses it for that purpose, taking the lowest or highest power of each prime. Most questions keep to the benchmark itself: writing, recognizing and reading factorizations. We rebalanced the pool toward that in September 2026, after GCF and LCM questions had crowded it. An LCM question filed here keeps the range FDOE sets for LCM in MA.6.NSO.3.1: both numbers are 25 or less.

Our call: Typing a factorization

Students type a factorization with * for times and ^ for an exponent, as in 23 * 32, and the input shows that format as a hint. Any order of the factors earns credit, since the order is not the skill.

3. How we built the questions

The core task is writing the factorization, 52 = 2² × 13, either typed or matched from a list of numbers to their factorizations. Other questions work the same idea from different sides: choose which product of primes equals 60, find the number whose factorization is 2³ × 3 × 7, or say how many times 2 and 3 appear as factors of 72. The explanations divide out each prime in turn (72 ÷ 2 = 36, 36 ÷ 2 = 18, 18 ÷ 2 = 9 gives three 2s) and then write the result with exponents.

Wrong answers are near misses a student could really write: a factor that is not prime (2² × 15 for 60), a missing prime (2 × 3² for 90), and an exponent one too high or too low. The how-many-times menus list four counts in a row, from 0 to 3 up to 4 to 7, so the right count does not always sit in the same place, and no menu shows both half and double the right answer. Error-analysis questions show a student's factorization and ask which statement is true.

The GCF and LCM questions use the factorizations of two numbers, take the lowest or highest power of each prime, and multiply; one dropdown form asks for both from the same pair, such as 18 and 24. A lint rule fails any LCM question with a number above 25, and any factorization asked of a number that is not composite. FAST practice is all factorization, with numbers up to about 2,000 at the top level and multiple-choice foils such as 2² × 10² for 400.

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MA.6.NSO.3.5Rewrite rationals as fractions, terminating decimals & percentagesRewrite positive rational numbers in different but equivalent forms including fractions, terminating decimals and percentages.

1. FLDOE language, word for word

Benchmark MA.6.NSO.3.5: Rewrite positive rational numbers in different but equivalent forms including fractions, terminating decimals and percentages.

Example: The number 1 5/8 can be written equivalently as 1.625 or 162.5%.

Clarification 1: Rational numbers include decimal equivalence up to the thousandths place.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 11; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 74; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students rewrite a positive rational number as a fraction, a terminating decimal or a percent, and move among all three; FDOE's example writes 1 5/8 as 1.625 and as 162.5%. The clarification caps decimal equivalence at the thousandths place, which points to fractions such as eighths, twentieths, twenty-fifths and fortieths. There are no assessment limits beyond that.

This is the conversion skill that MA.6.NSO.1.1 relies on when it compares numbers written in different forms.

Our call: Three skills

We split the benchmark into fractions to decimals, decimals to fractions, and moving among fractions, decimals and percents. The first two are different procedures (divide, versus write over a power of ten and simplify), and percent adds its own scaling step.

Our call: Every decimal ends by the thousandths

The benchmark says terminating decimals and the clarification stops at the thousandths, so every fraction in every task, comparisons included, has a decimal that ends within three places. Sixteenths (2 3/16 = 2.1875) and fractions such as 2/3 or 3/7, which never end, were in the bank until September 2026 and are gone, and no answer choice or explanation prints a fourth decimal place.

Our call: Division is one calculator line

The FAST allows a calculator here, so a fraction becomes a decimal in one line, 3 ÷ 8 = 0.375, never a long-division layout; a lint rule fails any explanation that carries one. A mixed number is split into its whole number and its fraction first, and the two are added back together.

3. How we built the questions

Fraction-to-decimal questions start with fractions like 3/4 and 3/8, then mixed numbers such as 2 5/8. Students type the decimal, choose it, match fractions to decimals, or select every fraction equal to 0.8. Comparison and ordering questions convert first: which comparison of 7/8 and 0.85 is true, or which of four boards is longest when one length is 2 3/8 feet.

Decimal-to-fraction questions write the decimal over its place value and simplify (0.15 = 15/100 = 3/20). The percent skill converts fractions to percents (5/8 = 62.5%), decimals to percents and back, and uses matching grids where each value has one or two equivalent forms to find. A typed question that asks for a fraction or a decimal accepts only that form: 0.6 typed back into "Write 0.6 as a fraction" does not score.

Wrong answers are the conversion errors students make: writing the digits after a decimal point (1/8 = 0.18, 1/2 = 12%), dividing the denominator by the numerator, reading hundredths as tenths, dropping the whole number of a mixed number, stopping or rounding the division too soon (2 3/8 = 2.37 or 2.38), reading a remainder as tenths (7/5 = 1.2), mixing up neighbouring eighths (7/8 = 0.625), stopping short of simplest form (6/10), and moving the point one place, three places or the wrong way for a percent (7% or 0.007% for 0.7, 300% for 0.3), never one place and three places in the same list of choices. Error-analysis questions show each of these. Lint rules fail any decimal past the thousandths, any fraction that does not terminate, and any typed conversion that does not check the form. FAST practice adds conversions inside short measurement stories, some of which add a fraction and a decimal (a 5/8-meter ribbon plus 0.5 meter), and percent claims to check (a survey finds 0.6 of students ride the bus; a newsletter reports 6%). FDOE lists this benchmark as a mathematical context only, so these stories, like the measurement contexts in the harder practice questions, go beyond the FAST's format.

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MA.6.NSO.4.1Add & subtract integers with procedural fluencyApply and extend previous understandings of operations with whole numbers to add and subtract integers with procedural fluency.

1. FLDOE language, word for word

Benchmark MA.6.NSO.4.1: Apply and extend previous understandings of operations with whole numbers to add and subtract integers with procedural fluency.

Clarification 1: Instruction begins with the use of manipulatives, models and number lines working towards becoming procedurally fluent by the end of grade 6.

Clarification 2: Instruction focuses on the inverse relationship between the operations of addition and subtraction. If p and q are integers, then p − q = p + (−q) and p + q = p − (−q).

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 12; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 75; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students add and subtract integers with fluency. The clarifications set the path: manipulatives, models and number lines first, then procedural fluency by the end of grade 6, built on the inverse link between the two operations, p − q = p + (−q).

The assessment limits keep negatives in play. Addition items include at least one negative integer, and subtraction items include a negative or subtract a larger positive from a smaller one, as in 5 − 18.

Our call: Three skills

We practice adding, subtracting, and adding and subtracting in real-world situations as three skills. Subtraction gets its own skill because rewriting 12 − (−7) as 12 + 7 is the idea FDOE's clarification centers, and it deserves more than a line inside an addition set.

Our call: Stories must leave the whole numbers

FDOE writes its limits for bare expressions; we hold the stories to them too. Every story starts, passes or ends below zero, or gives a negative answer, so a hiker 40 feet above sea level who descends 18 feet (plain whole-number subtraction) is not in the bank. Nine stories like that, one 7 − 7, and three whole-number rows inside otherwise signed items (the select-all option 2 + 8, the matching rows 10 − 2 and 9 − 9) were changed in September 2026.

3. How we built the questions

Addition moves from two integers (−4 + (−5), −15 + 8) to four-term chains added left to right. Some addition questions have the student find the sum on an interactive number line and plot it, and missing-addend questions ask what must be added to −7 to get 5.

Subtraction starts with a larger positive taken from a smaller one (3 − 10), then subtracting a negative (−5 − (−12)), then four-term chains. Rewrite questions ask which addition expression equals −23 − (−16). The story skill covers temperatures, elevations, bank balances, elevators and football yardage: students write the expression, pick + or − for each change, compute the result, or work backward to the starting value. FDOE lists this benchmark as a mathematical context only, so the stories go beyond the FAST's format.

Wrong answers come from the sign rules: adding the absolute values when the signs differ, subtracting them when the signs match, the right size with the wrong sign, treating every number as positive, subtracting in the wrong order, and subtracting 7 where subtracting −7 means adding 7; longer chains and stories add leaving out one number or one change and taking a change the wrong way. A second ± pair is one of these slips with its sign lost too, and no answer choice in a story repeats its starting number. When a story fixes the sign, as for a diver who never comes back up to the surface, every choice keeps that sign. Error-analysis questions show a student's work and name the slip. A lint rule fails any item whose stem and answer show no negative integer and no larger subtrahend, running each story forward to see whether it goes below zero, and any select-all option or matching row that is whole-number work. FAST practice adds a number-line item for (−6) + 5 and two-part stories that ask for the expression first, then the value.

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MA.6.NSO.4.2Multiply & divide integers with procedural fluencyApply and extend previous understandings of operations with whole numbers to multiply and divide integers with procedural fluency.

1. FLDOE language, word for word

Benchmark MA.6.NSO.4.2: Apply and extend previous understandings of operations with whole numbers to multiply and divide integers with procedural fluency.

Clarification 1: Instruction includes the use of models and number lines and the inverse relationship between multiplication and division, working towards becoming procedurally fluent by the end of grade 6.

Clarification 2: Instruction focuses on the understanding that integers can be divided, provided that the divisor is not zero, and every quotient of integers (with non-zero divisor) is a rational number. If p and q are integers where q ≠ 0, then −(p/q) = −p/q, −(p/q) = p/−q and p/q = −p/−q.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Number Sense and Operations (33-42% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 12; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 75; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students multiply and divide integers with fluency. The clarifications ask for models, number lines and the inverse link between multiplication and division, and they note that a quotient of integers is a rational number, with −(p/q) = −p/q = p/−q. The single assessment limit is that items include at least one negative integer.

For practice, that makes the sign of the answer the main event: the size is a multiplication fact, and the sign comes from counting the negative factors.

Our call: Elevation, not depth

In submarine and diver stories we ask for the change in elevation relative to sea level, and the stem says that a descent is a negative change. An earlier version asked for the "change in depth" and keyed −27, which marked a student who answered 27 (the depth did grow by 27 feet) wrong. We reworded the whole family in September 2026.

Our call: Where the negative comes from in a story

In story questions the negative often comes from the situation rather than the page: "the temperature falls 3°F every hour for 5 hours" is 5 × (−3), and turning the story into that signed expression is part of the task. To keep FDOE's limit, the answer is then a signed integer, −15°F, typed or chosen; until September 2026 the choices were words such as "15°F cooler", which never asked for a negative number. FDOE lists the benchmark as a mathematical context only, so FAST items write the negative in the expression.

3. How we built the questions

Multiplication starts with one negative factor ((−4) × 6), then two ((−7) × (−8)), then three factors multiplied left to right, then missing factors: (−12) × ? = 84. Division follows the same sign cases, from −12 ÷ 3 to −110 ÷ (−10), then a division followed by a multiplication, (−81 ÷ 9) × (−3), and missing dividends or divisors. Other forms choose the sign and then the value in two dropdowns, compare two quotients with <, > or =, or match expressions to values. Every quotient comes out to a whole integer.

The story skill has three kinds of question: a repeated change (a submarine dives 9 feet each minute for 3 minutes, a change of −27 feet), a negative total split into equal parts (−96 feet over 6 equal dives), and two phases combined (a drop of 4°F an hour for 7 hours, then a rise of 2°F an hour for 5 hours). Some ask only for the expression that models the story, which tests multiply-or-divide as well as the sign.

Wrong answers come from the sign rules (two negative factors called negative, three called positive), from adding or subtracting instead of multiplying or dividing, from a fact slip, from one repeat or one share too many or too few, from multiplying or copying the product where a missing factor needs dividing, from stopping after two factors, and from leaving out one part of a two-part story. A positive answer never has its sign-flipped twin as the only negative choice. In a story whose changes all go one way (a drop repeated each hour, a loss shared equally), every numeric choice keeps that sign and no share is larger than the whole. Error-analysis questions ask which statement about a student's work is true. A lint rule fails any item, select-all option or matching row with no negative integer (6 × 6 became (−6) × (−6)). FAST practice writes some divisions as fractions (−63 over 7, times −5) and pairs stories with a choice of expression.

Practice and quiz bank: 330 questions

Formats:
Multiple choice 59%, Equation editor 32%, Drop-down (editing task choice) 6%, Matching 2%, Multiselect 2%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

Algebraic Reasoning

25-36% of the FAST Grade 6 Mathematics

MA.6.AR.1.1Translate between written descriptions & algebraic expressionsGiven a mathematical or real-world context, translate written descriptions into algebraic expressions and translate algebraic expressions into written descriptions.

1. FLDOE language, word for word

Benchmark MA.6.AR.1.1: Given a mathematical or real-world context, translate written descriptions into algebraic expressions and translate algebraic expressions into written descriptions.

Example: The algebraic expression 7.2x − 20 can be used to describe the daily profit of a company who makes $7.20 per product sold with daily expenses of $20.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 13; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 75; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

The benchmark runs in both directions. A student turns words into an expression ("8 more than twice a number p" becomes 2p + 8) and turns an expression back into words. In a real-world item that includes saying what each part stands for: which term is the hourly charge and which is the one-time fee.

Two limits shape the practice. An expression has one or two unknowns, and "Items will not require the student to perform operations": the student writes or reads the expression but never simplifies or evaluates it.

Our call: Two skills, one for each direction

We split the benchmark into writing expressions from words and describing expressions in words, because the errors differ. Going from words to symbols, students reverse "less than"; going from symbols to words, they swap the two numbers. Each direction has its own practice and quiz set.

Our call: One unknown for now

FDOE allows up to two unknowns. Every item in the current bank uses a single variable. Two-variable expressions are a gap we have not filled yet, not a ruling.

3. How we built the questions

On the words-to-expression side, the easiest questions translate one operation ("the difference of f and 11"). Middle questions stack two ("12 less than twice a number e"), and the hardest are cost and profit stories: a $25 monthly fee plus $0.10 per text, or $24 earned per dog minus $45 a day for supplies. Students pick one of four expressions or type their own, and typed answers also accept common rearrangements, such as 20 + h for h + 20.

On the expression-to-words side, students choose the phrase that matches an expression such as k/3 − 4, match four expressions to four phrases, or select every phrase or expression that fits. In the hardest items a story defines s as the number of smoothies sold, and two drop-down menus ask what 6s and 75 represent in 6s − 75 (the money from the smoothies sold, the rent paid for the day). Every menu choice is a short phrase of the same shape (the rate, the variable, the whole total), so the answer never stands out by length.

Wrong answers are the slips students make: reading "less than" in the wrong order (18 − x for "18 less than x"), grouping too much (2(e − 12) for "12 less than twice e"), swapping the coefficient and the constant, or adding the rate to the daily cost. Error-analysis items show a student's translation, such as 3 − k for "k decreased by 3", and ask which slip produced it. FAST practice adds two-part items: write the expression, then say what a number in it represents.

Both FDOE limits are machine-checked: a lint rule fails any item with more than two unknowns or none, and any item that asks for a value. Every practice, quiz and FAST practice item passes it.

Practice and quiz bank: 212 questions

Formats:
Multiple choice 66%, Equation editor 13%, Drop-down (editing task choice) 11%, Matching 7%, Multiselect 3%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.1.2Translate descriptions into algebraic inequalities; graph on a number lineTranslate a real-world written description into an algebraic inequality in the form of x > a, x < a, x ≥ a or x ≤ a. Represent the inequality on a number line.

1. FLDOE language, word for word

Benchmark MA.6.AR.1.2: Translate a real-world written description into an algebraic inequality in the form of x > a, x < a, x ≥ a or x ≤ a. Represent the inequality on a number line.

Example: Mrs. Anna told her class that they will get a pizza if the class has an average of at least 83 out of 100 correct questions on the semester exam. The inequality g ≥ 83 can be used to represent the situation where students receive a pizza and the inequality g < 83 can be used to represent the situation where students do not receive a pizza.

Clarification 1: Variables may be on the left or right side of the inequality symbol.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 13; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 76; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students write an inequality of the form x > a, x < a, x ≥ a or x ≤ a from a real-world description, then show it on a number line. The reading skill is the language: "at least" and "no more than" include the boundary, while "more than" and "under" do not.

Items may require operations first, so a student may have to work out the boundary (a 45-pound limit with 26 pounds already packed). FDOE also says the context should be continuous, since a shaded ray claims that every value in between is possible, and the variable may sit on either side of the symbol.

Our call: Continuous contexts

Every story, in practice and quiz questions and in FAST practice, is about a measured quantity: length, weight, time, speed, temperature, elevation, volume, age or an average score. We read counts as outside the limit, and we count money and points scores with them, since money moves in whole cents and a score in whole points. FDOE's own example uses an average score for the same reason. A graphed story that shades left, below zero, is always about a quantity that can be negative (a temperature, an elevation, a river's level above or below normal), so the ray never claims a negative age or weight.

Our call: Which side the variable is on

Most questions print the variable on the left. A few multiple-choice questions print every choice with the variable on the right, such as 10 ≤ a for "at least 10 years old", because FDOE allows either side and a student has to read the symbol from the number's point of view. A typed answer written the other way round, such as 32 ≥ t for t ≤ 32, is accepted.

3. How we built the questions

There are three kinds of question. The first gives a sentence ("A water slide requires riders to be at least 42 inches tall") and asks for the inequality: pick it, pick the symbol from a drop-down, type it, or match four descriptions to four inequalities. The second has the student graph an inequality on an interactive number line from −10 to 10 by choosing an open or closed circle and the direction of the shading. A smaller set runs the other way: a graphed inequality is shown and the student names it.

The hardest questions take two steps. A container holds at most 250 milliliters and already has 145, so the student finds m ≤ 105 and then decides whether m = 100 works. Each option pairs an inequality with a yes or no; the wrong ones use the full 250 instead of what remains, add or drop the "or equal to", or reach the wrong verdict.

Elsewhere the wrong answers mix up "at least" with "more than", draw a closed circle for a strict inequality, or shade the wrong way. FAST practice adds bare inequalities to graph and more of the two-step boundary questions, told with the same measured quantities.

Lint rules fail any item that tells a counted, money or points story, any graphed story that shades below zero for a quantity that cannot be negative, and any answer choice that is not a single variable against a number. Another fails any graphing item whose explanation does not end with the finished graph.

Practice and quiz bank: 100 questions

Formats:
Multiple choice 44%, Graphing (GRID) 33%, Equation editor 10%, Drop-down (editing task choice) 9%, Matching 4%
Show a figure, table or graph:
40% (number line 40%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.1.3Evaluate algebraic expressions using substitution & order of operationsEvaluate algebraic expressions using substitution and order of operations.

1. FLDOE language, word for word

Benchmark MA.6.AR.1.3: Evaluate algebraic expressions using substitution and order of operations.

Example: Evaluate the expression 2a² − b/5, where a = −1 and b = 15.

Clarification 1: Within this benchmark, the expectation is to perform all operations with integers.

Clarification 2: Refer to Properties of Operations, Equality and Inequality (Appendix D).

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 14; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 76; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students substitute given values into an expression and evaluate it with the order of operations. FDOE's clarification sets the expectation that the arithmetic is done with integers, so negative values for the variables are fair, and the benchmark's own example squares a negative number.

The assessment limit caps items at three variables. FDOE lists the benchmark as mathematical, so a bare expression with values to substitute is the typical item.

Our call: With and without exponents

We split evaluation into expressions without exponents and expressions with a squared term, because squaring brings its own errors: reading v² as 2v, squaring the coefficient too, and writing (−3)² as −9. Each has its own practice and quiz set.

Our call: Formulas, in integers

We added formula questions (P = 2l + 2w, a cost formula C = 30h + 45, F = 9C/5 + 32, h = 64t − 16t²) so students also substitute into the formulas they meet in science and geometry, even though FDOE lists the benchmark as mathematical. They follow the integer expectation: every given value, answer choice and worked step is an integer, and many are negative (a temperature of −8 degrees, an elevation of −34 feet). The harder formula questions get harder through negative values, a fraction bar that groups a sum, a division with an integer result or a third variable, never through decimals or fractions.

3. How we built the questions

The easiest questions have one variable and two operations, such as 4h − 5 when h = 8. Middle questions bring two variables and negative values (5a − 6b + 1 when a = −3 and b = 2), or a formula whose answer is negative, such as a lemonade stand's profit 2c − 15 after 6 cups. The hardest include like terms that can be combined first, three terms with a square, as in 5m² + 3n − 2m when m = 2 and n = −4, or a formula with a grouping bar, such as the average (a + b + c)/3 of three low temperatures. Students type the value or pick it from four.

Distractors come from order-of-operations and sign slips: adding before multiplying, reading 3x at x = 4 as 34, computing (3k)² instead of 3k², writing (−3)² as −9, mishandling a subtracted negative, and skipping the division under a fraction bar. Error-analysis items show a student's wrong value ("Jaden evaluated n² + 5 when n = 6 and got 17") and ask which slip produced it.

FAST practice adds two-part items that evaluate one expression and then a changed version with the same values. For every typed key, check-grading runs the key and each accepted alternate through the real grader, so an entry such as 17.0 for 17 is known to score. A lint rule fails any item with more than three variables, and any item with a decimal or a fraction in its values, choices, answer or worked steps; a division such as 30/6 or −16/4 that comes out to an integer passes.

Practice and quiz bank: 212 questions

Formats:
Equation editor 52%, Multiple choice 48%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.1.4Generate equivalent algebraic expressions with integer coefficientsApply the properties of operations to generate equivalent algebraic expressions with integer coefficients.

1. FLDOE language, word for word

Benchmark MA.6.AR.1.4: Apply the properties of operations to generate equivalent algebraic expressions with integer coefficients.

Example 1: The expression 5(3x + 1) can be rewritten equivalently as 15x + 5.

Example 2: If the expression 2x + 3x represents the profit the cheerleading team can make when selling the same number of cupcakes, sold for $2 each, and brownies, sold for $3 each. The expression 5x can express the total profit.

Clarification 1: Properties include associative, commutative and distributive.

Clarification 2: Refer to Properties of Operations, Equality and Inequality (Appendix D).

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 14; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 76; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students rewrite an expression in an equivalent form using the associative, commutative and distributive properties: expanding 5(3x + 1) to 15x + 5, collecting 2x + 3x into 5x, or deciding which of several forms match. An item may call for one property or a combination of them.

The limit keeps the numbers simple: one or two variables, with integer coefficients, factors and terms. FDOE's second example is a cupcake-and-brownie profit, so the expression can come from a situation, but the work is still the rewrite.

Our call: Three skills

We split the benchmark into applying the distributive property, combining like terms, and recognizing equivalent expressions that need both. Distributing a negative and collecting signed terms go wrong in different ways, so each skill has its own practice and quiz set.

Our call: Factoring counts

FDOE does not name factoring, but writing 9x + 15 as 3(3x + 5) is the distributive property read backwards, so a small set of items asks for the greatest-common-factor form. Those are multiple choice only, because a typed answer box would also accept the unfactored expression. The wrong choices divide only one term, swap the two quotients, or do both, so the answer is not the only choice with new numbers inside the parentheses.

Our call: One variable for now

FDOE allows two variables. Every current item uses one, which is a gap we have not filled yet.

3. How we built the questions

Distributive-property questions start with a positive number outside the parentheses (6(a + 7)), move to negative factors and subtraction inside (−4(3n + 2)), and end with select-all items over five candidate forms of −5(2y − 3), such as 5(−2y + 3). Combining-like-terms questions grow from two terms (15k − 9k) to six (8b − 6 + 4b + 3 − 9b − 2) and include perimeter and garden stories whose parts are expressions. Equivalence questions combine both moves, as in 4(3k + 1) − 7k.

Answers are chosen, typed, assembled from drop-downs, or matched. Wrong options come from named errors: multiplying only the first term (8k + 5 for 8(k + 5)), losing a sign when distributing a negative, squaring the variable (8x² for 5x + 3x), multiplying the coefficients (42k for 7k + 6k), and folding the constants into the variable terms. In a multiple-choice rewrite the wrong options cross two errors (each alone, then both), so no choice sits at the center of the others: for 3(x + 4) they are 3x + 12, 4x + 12 (added 3 and 1), 3x + 4 (the 4 never multiplied) and 4x + 4 (both). A stem with no subtraction never gets a choice with a minus sign. Error-analysis items show one of these answers and ask which slip made it.

Typed answers accept rearranged forms, so 18y − 12 and −12 + 18y both score, and a check confirms every accepted alternate equals the key. FAST practice adds two-part items: pick the equivalent form, then select every other expression that also matches, such as 4(2d + 10) for 8(d + 5).

A lint rule enforces FDOE's limit (at most two variables; integer coefficients, factors and terms, x/2 excluded; a rewrite, never a value), and every item passes.

Practice and quiz bank: 312 questions

Formats:
Multiple choice 60%, Equation editor 24%, Multiselect 9%, Drop-down (editing task choice) 5%, Matching 2%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.2.1Test integer values to determine if an equation/inequality is trueGiven an equation or inequality and a specified set of integer values, determine which values make the equation or inequality true or false.

1. FLDOE language, word for word

Benchmark MA.6.AR.2.1: Given an equation or inequality and a specified set of integer values, determine which values make the equation or inequality true or false.

Example: Determine which of the following values make the inequality x + 1 < 2 true: −4, −2, 0, 1.

Clarification 1: Problems include the variable in multiple terms or on either side of the equal sign or inequality symbol.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 15; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 76; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Given an equation or inequality and a few integers, the student decides which values make it true. No solving is needed: substituting each value and comparing the two sides is the skill. FDOE allows the variable in more than one term and on either or both sides, with integer coefficients and constants.

The item specs also let the values be listed in set braces, and inequalities use only >, ≥, < and ≤. The practice point is the boundary: a value that makes both sides equal satisfies ≤ but not <.

Our call: Checking, not solving

Every inequality explanation substitutes each candidate into the original inequality and evaluates both sides; none of them solves the inequality, which is grade 7 work. Equation explanations may undo the operation first, but they always finish by substituting the value back.

Our call: How the values are shown

Most questions list the candidate values as answer choices, sometimes in a small table. The typed questions give the set in braces, such as {19, 5, 7, 12}, and the student types the value from the set that works, so even a typed answer is a check of given values rather than a solve from scratch.

3. How we built the questions

Easy practice and quiz questions are one-step equations with four candidate values (which value is a solution of 3x = 27?) or a set in braces to check. Most middle questions are one-sided inequalities such as 5x − 4 < 21 with five or six candidates, and the student selects every value that works. The hardest put the variable on both sides (5x − 3 ≤ 2x + 9), and their select-all lists include zero or a negative number. A few questions show the candidates in a table.

About a quarter of the easy and middle practice and quiz questions put the variable alone on the right (15 = x + 9, 17 ≥ 3x + 2), and only those use > or ≥. Six practice and quiz questions tell a short story (a backpack that holds at most 15 pounds); a story's candidates are counts, never negative.

The candidates often include the boundary, where students slip: counting it for a strict inequality, dropping it for "or equal to", or comparing the candidate with a number in the inequality instead of substituting. Reasoned items give a claim ("Jada says x = 4 is a solution of 3x − 2 ≤ 13") and four yes-or-no answers with reasons, two of each. The wrong ones cross a slip in the work (reading 3x as 3 + 4, or not substituting) with a slip in the comparison (reading the symbol backwards, or as an equals sign).

FAST practice follows the same pattern: easy items pick one value (one of them for the inequality 3x < 12), the rest are select-all lists, and some use > or ≥ with the variable on the left (3x − 2 > 4). A lint rule fails any item whose equation or inequality has a decimal or fraction coefficient, a second variable or an exponent, uses the not-equal sign, or offers a value to check that is not an integer.

Practice and quiz bank: 100 questions

Formats:
Multiselect 56%, Multiple choice 36%, Equation editor 8%
Show a figure, table or graph:
4% (table 4%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.2.2Write & solve one-step addition/subtraction equations (integer terms)Write and solve one-step equations in one variable within a mathematical or real-world context using addition and subtraction, where all terms and solutions are integers.

1. FLDOE language, word for word

Benchmark MA.6.AR.2.2: Write and solve one-step equations in one variable within a mathematical or real-world context using addition and subtraction, where all terms and solutions are integers.

Example: The equations −35 + x = 17, 17 = −35 + x and 17 − x = −35 can represent the question "How many units to the right is 17 from -35 on the number line?"

Clarification 1: Instruction includes using manipulatives, drawings, number lines and inverse operations.

Clarification 2: Instruction includes equations in the forms x + p = q and p + x = q, where x, p and q are any integer.

Clarification 3: Problems include equations where the variable may be on either side of the equal sign.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 16; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 77; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students write, solve, or write and solve one-step equations that use addition or subtraction, in the forms x + p = q and p + x = q, where every term and solution is an integer. The variable can be on either side of the equal sign, as in −7 = x + 13.

The limit that shapes the practice is that items "must incorporate a negative integer in either the given equation or the solution." FDOE lists number lines and drawings for instruction, so a number line is a fair support for this skill.

Our call: A negative at every level

Every item, the easiest included, shows a negative number in its equation or asks the student to find a negative answer. At the easiest level nearly every solving question crosses zero once (x + 5 = 2, x − 4 = −1), so students settle the inverse operation before the arithmetic gets harder. At that level every story where the student picks an equation also ends below zero, such as a temperature, an elevation, an account balance or a game score.

Our call: Two skills

We separate solving a given equation from writing one for a story, because choosing between x − 8 = −3 and x + 8 = −3 is a reading problem, not an arithmetic one. Writing questions never use a free-typed equation: a story has several correct equations, so the student chooses or assembles one.

Our call: Stating the sign convention

Questions about a change say in the stem that a change is positive for an increase and negative for a decrease, so exactly one equation is correct. A position below a surface is always given as a negative number (an elevation of −3 feet, floor −2), never as a depth, so a negative number always means below.

3. How we built the questions

Solving questions begin with equations that cross zero once (x + 5 = 2), move to negative answers (x + 14 = −6), and end with the variable on the right (−3 = x − 15). Students type the value, pick it, match equations to solutions, or plot the answer on a number line, and a few stories ask them to write and solve (a game score that drops 8 points to −3).

Writing questions describe a start, a change and an end (a temperature that drops 8 degrees to −3°F). The student picks the equation, completes it from drop-downs, matches situations to equations, or selects every equation that fits. Each situation-matching item uses one pair of numbers four ways, so every row needs the plus-or-minus decision. Select-all items accept reordered terms or swapped sides (−4 = w + 15), never a solved form. Nearly every top-level writing item also asks for the starting value.

Wrong answers are real slips: the same operation instead of the inverse, the inverse step taken as the answer (−11 for x + 11 = −4), a sign flipped or dropped (on the answer, the start or the end), a number copied from the equation, the wrong operation for the change (adding a drop, subtracting a rise or a change), the start and the end swapped, or a subtraction in the wrong order (18 − x = −7). The drop-down that picks the step also offers multiplying and dividing, and a few writing items offer a multiplication or division equation (8x = −3). Error-analysis items show one of these and ask which slip it was.

FAST practice adds two-part items (choose the equation, then solve it), and its hardest bare equations put the variable on the right (−30 = x + 13). Lint rules fail any item that neither shows a negative nor asks for one, any keyed equation outside x + p = q or p + x = q, any inequality, and any decimal or fraction.

Practice and quiz bank: 212 questions

Formats:
Multiple choice 57%, Equation editor 26%, Matching 6%, Drop-down (editing task choice) 5%, Multiselect 5%, Graphing (GRID) 2%
Show a figure, table or graph:
2% (number line 2%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.2.3Write & solve one-step multiplication/division equations (integer terms)Write and solve one-step equations in one variable within a mathematical or real-world context using multiplication and division, where all terms and solutions are integers.

1. FLDOE language, word for word

Benchmark MA.6.AR.2.3: Write and solve one-step equations in one variable within a mathematical or real-world context using multiplication and division, where all terms and solutions are integers.

Clarification 1: Instruction includes using manipulatives, drawings, number lines and inverse operations.

Clarification 2: Instruction includes equations in the forms x/p = q, where p ≠ 0, and px = q.

Clarification 3: Problems include equations where the variable may be on either side of the equal sign.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 17; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 77; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

This is the multiplication-and-division partner of the previous benchmark. Students write, solve, or write and solve equations of the form px = q or x/p = q, where p is not zero and every term and solution is an integer. The variable may be on either side of the equal sign.

Unlike the addition benchmark, FDOE does not require a negative number in every item, so 4x = 28 is a fair question. Negative coefficients and negative totals are still part of the skill.

Our call: Two skills

We split solving a given equation from writing one for a story. Writing is where students confuse 6b = 72 with b ÷ 6 = 72 or 72b = 6, so it has its own set. In practice and quiz, every third multiple-choice slot on the equal-groups and equal-share items is a typed write-and-solve item, because the benchmark asks for both, and the rate items ask for the equation only.

Our call: Defined variables and signs

Every story defines its variable and unit, and losses, descents and debts state their sign ("penalized 9 points, recorded as −9 points"), so exactly one equation fits. When a debt question asks for a total, it asks for the amount as a positive number.

Our call: Integers everywhere

FDOE says every term and solution is an integer, and we hold the answer choices to the same rule: a wrong choice such as 1.8 or a total of $3.40 would let a student rule it out without doing the math, so every choice is an integer too.

3. How we built the questions

Solving questions start with positive equations (4x = 28, x/8 = 6) and then bring in negative coefficients and divisors (−8x = 32, x ÷ (−8) = −4). The hardest ones also put the variable on the right side (−52 = −4x, 7 = x ÷ (−8)). Students type the answer, pick it, choose it from a drop-down, match equations to solutions, or select every equation with a given solution.

Writing questions come in three families: equal groups (54 cookies on 3 trays, so 3t = 54), constant rates of loss (a balloon descends for 4 minutes and changes by −80 feet, so 4r = −80), and equal shares of a total (five neighbors each pay $26, so d ÷ 5 = 26). Some of the hardest attach a sign to the share (a shared debt). Wrong equations add where they should multiply or divide, reverse the product (54t = 3), divide or subtract where they should multiply, multiply or subtract where they should divide, divide the count by the total (5 ÷ d = 24), or drop the negative sign. When a rate or share item offers four equations, they cross two slips (the operation with the sign, the order or the value), so no wrong choice stands alone.

Solving distractors are real slips of a believable size: a flipped sign, a number copied from the equation, adding or subtracting in either order (3 − 27 = −24 for 3x = 27), and on x/a = b one group too many or too few. No answer choice for a solution multiplies where it should divide, since 252 for 6x = 42 fails a quick size check; a solution found that way appears only in error-analysis items ("Noah solved 2x = 38 and got x = 76").

FAST practice adds two-part items: choose the equation, then solve it. Lint rules fail any given or keyed equation outside px = q or x/p = q, any inequality, and any decimal or non-whole fraction a student sees, choices and explanations included.

Practice and quiz bank: 212 questions

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FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.2.4Find an unknown decimal or fraction in any position of an equationDetermine the unknown decimal or fraction in an equation involving any of the four operations, relating three numbers, with the unknown in any position.

1. FLDOE language, word for word

Benchmark MA.6.AR.2.4: Determine the unknown decimal or fraction in an equation involving any of the four operations, relating three numbers, with the unknown in any position.

Example: Given the equation 9/8 = x − 1/8, x can be determined to be 10/8 because 10/8 is 1/8 more than 9/8.

Clarification 1: Instruction focuses on using algebraic reasoning, drawings, and mental math to determine unknowns.

Clarification 2: Problems include the unknown and different operations on either side of the equal sign. All terms and solutions are limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 17; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 77; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find a missing positive decimal or fraction in an equation that relates three numbers with any of the four operations, and the unknown can be in any position: 9.4 − x = 3.6, 7/9 = x + 2/9, or 13.2 ÷ x = 4. FDOE's clarification puts the weight on reasoning, drawings and mental math.

All terms and solutions are positive rational numbers, and items will not ask students to relate numbers in different forms, so one item works in decimals or in fractions, not both. The benchmark is listed as mathematical.

Our call: Decimals and fractions kept apart

We split the benchmark into decimal equations and fraction equations, following the limit on mixing forms. Within each, difficulty mostly follows the operation: for decimals, addition and subtraction, then multiplication, then division; for fractions, like denominators, then unlike denominators, then a fraction times x or divided by x.

Our call: The unknown in any position

Most items put x first, so a separate set moves it to the second or third position and onto the right side (a − x = b, c = a · x, a ÷ x = b). A few of these tell a short story, such as rice split into bags, but they always state the equation, so the task stays mathematical.

3. How we built the questions

Decimal questions run from x + 1.5 = 4.3 through 1.2 · x = 13.2 to x ÷ 0.5 = 9.4, and students type, pick, match, or select every equation with a given solution. Fraction questions run from like denominators (x + 1/9 = 5/9) through unlike ones (x − 3/4 = 1/8) to a fraction coefficient ((2/3)x = 5/12), and are almost all typed. A typed fraction answer also scores as its decimal when the decimal ends (0.875 for 7/8), and an improper fraction also scores as a mixed number (1 1/6 for 7/6).

Wrong answers come from the move each form invites: doing the same operation instead of the inverse (15.84 for 1.2 · x = 13.2), subtracting instead of dividing (12), copying a number from the equation, a + b for a − x = b, a × b for a ÷ x = b, multiplying the two fractions (5/36 for 5/6 = x + 1/6), the reciprocal of the answer, fractions added or subtracted straight across, a decimal point one place off (90 for 0.6 · x = 5.4), and a sum one whole too big (6.4 for x − 1.6 = 3.8). Error-analysis items show one of these and ask which slip it was.

FAST practice is typed throughout and puts the unknown on the right or in the divisor more often (11.25 = 2.5 · x, 11.7 ÷ x = 6.5). Every FAST item states its equation; the one word problem that did not (a price per pound) is now 6.5 ÷ x = 1.25.

Lint rules check the benchmark's limits on every item: no decimal and fraction mixed anywhere a student sees them, choices and explanations included (a fraction key still accepts its ending decimal); no negative number or zero in an equation or an answer choice; and every equation relates exactly three numbers.

Practice and quiz bank: 200 questions

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FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.3.1Write & interpret ratios in a/b, a to b, or a:b notationGiven a real-world context, write and interpret ratios to show the relative sizes of two quantities using appropriate notation: a/b, a to b, or a:b where b ≠ 0.

1. FLDOE language, word for word

Benchmark MA.6.AR.3.1: Given a real-world context, write and interpret ratios to show the relative sizes of two quantities using appropriate notation: a/b, a to b, or a:b where b ≠ 0.

Clarification 1: Instruction focuses on the understanding that a ratio can be described as a comparison of two quantities in either the same or different units.

Clarification 2: Instruction includes using manipulatives, drawings, models and words to interpret part-to-part ratios and part-to-whole ratios.

Clarification 3: The values of a and b are limited to whole numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 18; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 78; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students write a ratio for two quantities from a real-world setting, part to part or part to whole, in any of FDOE's three notations: a/b, a to b or a:b. They also interpret a ratio, saying what "7 to 4" means for the cats and dogs in a shelter. The values are whole numbers.

The limit to watch is "Presentation of context in items does not determine the order of the ratio." A story may list goldfish first and ask for bettas to goldfish, so the student has to read which quantity comes first.

Our call: Order

Many of our part-to-part questions ask for the ratio in the opposite order from the story, and the reversed ratio is among the wrong answers, so reading the question matters more than copying the numbers in order.

Our call: Simplest form

FDOE does not require simplest form. Our two-part part-to-whole questions ask for it, which adds a greatest-common-factor step; the three-part questions leave the ratio as counted (6:20). The question says when it wants simplest form.

Our call: Ratio notation only

Every question starts from a real-world context (counts of things, or amounts such as cups in a recipe), and every ratio in it is written as a/b, a to b or a:b, or in words. We do not ask for a ratio as a decimal or a percent here; that conversion is practiced under MA.6.NSO.3.5. When a question asks for the fraction form, a typed decimal such as 0.6 is marked wrong, and when it asks for simplest form, so is an unreduced 14/21.

3. How we built the questions

Easy questions give two counts (9 daisies and 4 sunflowers) and ask for a part-to-part ratio. Middle questions ask for one part to the total, in simplest form. Hard questions use three kinds of objects and ask for one part to the total. Interpretation questions give a ratio and ask which sentence describes it ("For every 7 cats there are 4 dogs"), or which statements about it are true, or which ratios are equivalent to the one in the story.

The wrong answers are the ones students write: the reversed ratio, part to whole when part to part was asked (6 to 15 instead of 6 to 9) or the other way round, the other part, a total that leaves out or double-counts a group, and the unsimplified ratio. Error-analysis items show a student's ratio ("daisies to the total, in simplest form, is 6 to 20") and ask which error it is.

There are no figures on this benchmark; every question is in words. Most answers use "a to b" for two quantities and "a:b" for three, and a few are typed as fractions (goals allowed to goals scored, 18 to 24, is 3/4). A lint rule fails any item on this benchmark that asks for a decimal or a percent, names a ratio of bare numbers with nothing counted ("write the ratio 14:21"), or prints a value that is not a whole number. FAST practice adds a drop-down item that writes one ratio with a colon, with "to" and as a fraction, a typed fraction answer, and three-part collections in simplest form.

Practice and quiz bank: 112 questions

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FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.3.2Determine a rate from a ratio with different units; find the unit rateGiven a real-world context, determine a rate for a ratio of quantities with different units. Calculate and interpret the corresponding unit rate.

1. FLDOE language, word for word

Benchmark MA.6.AR.3.2: Given a real-world context, determine a rate for a ratio of quantities with different units. Calculate and interpret the corresponding unit rate.

Example: Tamika can read 500 words in 3 minutes. Her reading rate can be described as 500 words/3 minutes which is equivalent to the unit rate of 166 2/3 words per minute.

Clarification 1: Instruction includes using manipulatives, drawings, models and words and making connections between ratios, rates and unit rates.

Clarification 2: Problems will not include conversions between customary and metric systems.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 18; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 78; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find a rate for two quantities with different units, turn it into a unit rate (the amount for one), and say what that unit rate means in the situation, such as which car is faster or which store is cheaper. FDOE's example works out to 166 2/3 words per minute, so a unit rate need not be a whole number.

Two limits apply: the order in which the context mentions the quantities does not fix the order of the ratio, and items do not ask students to convert units.

Our call: Two skills

We split finding a unit rate from comparing unit rates. Comparing is where the interpretation happens: the student has to decide which option is the better buy or the faster worker from the unit rates, not from the totals.

Our call: Order comes from the question

Speed stories sometimes name the hours first ("In 6 hours, a bus travels 342 miles"), price stories name the count first, and a set of questions asks for the less familiar rate: minutes per mile from "3 miles in 27 minutes", or pounds per dollar from "$6 for 4 pounds". In the multiple-choice items the other rate, its reciprocal, is among the wrong answers.

Our call: Repeating unit rates

Most of our unit rates are whole numbers or decimals of at most two places, which keeps the division the focus. A few follow FDOE's example and repeat (41 2/3 pages per minute, 2/3 hour per mile); those are typed exactly, as a fraction or a mixed number in simplest form (500/3 and 166 2/3 both count; a rounded 166.67 and an unreduced 1000/6 do not), or chosen as a fraction.

3. How we built the questions

Finding questions give a total and a count: 240 miles in 4 hours, $23.20 for 8 mugs, 7.2 cups of batter for 9 muffins. At the top level both numbers are decimals (8.28 miles in 3.6 hours). Each takes one division, and the wrong options include multiplying, subtracting, dividing the wrong way (0.02 miles per hour) and misplacing the decimal point.

Comparing questions put two stores, cars, pumps or printers side by side. Each option names a winner and a rate ("Store B at $0.45 per apple"), so a student who computes a rate correctly but picks the wrong store is caught. Harder items use decimal quantities such as 1.5 hours, include ties, or ask how much less per item the cheaper store charges. Every multiple-choice comparison in the practice and quiz questions (and the hardest FAST practice ones) also offers "Neither: both at" a rate, which is the answer only in a tie, so the wording of a tie is not a giveaway. Explanations show each rate as one division line and say which quantity goes on top and why.

There are no figures: the numbers are in the story. No item makes the student convert units, and a lint rule fails any item on this benchmark that puts two units of one kind (hours and minutes, feet and inches) in the same situation, or that asks for anything other than a rate (the summer review questions used to scale ratio tables). FAST practice adds two-part items where the student computes one unit rate and then picks the statement with the right answer and the right reason, a pace question in minutes per mile, and a repeating rate typed exactly in simplest form.

Practice and quiz bank: 212 questions

Formats:
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FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.3.3Generate part-to-part & part-to-part-to-whole ratio tablesExtend previous understanding of fractions and numerical patterns to generate or complete a two- or three-column table to display equivalent part-to-part ratios and part-to-part-to-whole ratios.

1. FLDOE language, word for word

Benchmark MA.6.AR.3.3: Extend previous understanding of fractions and numerical patterns to generate or complete a two- or three-column table to display equivalent part-to-part ratios and part-to-part-to-whole ratios.

Example: The table below expresses the relationship between the number of ounces of yellow and blue paints used to create a new color. Determine the ratios and complete the table.

Yellow (part)1.539
Blue (part)24
New color (whole)1221

Clarification 1: Instruction includes using two-column tables (e.g., a relationship between two variables) and three-column tables (e.g., part-to-part-to-whole relationship) to generate conversion charts and mixture charts.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 19; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 78; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students generate or complete ratio tables: two-column tables for two related quantities, such as a conversion chart, and three-column tables for a part-to-part-to-whole mixture, where the third column is the total. The table is the object of the skill, not a support for it.

FDOE sets no assessment limits here. Its example is a paint mixture with a decimal amount (1.5 ounces of yellow), so the entries in a table are not limited to whole numbers.

Our call: Whole-number multiples

In most of our practice tables each row is 1, 2, 3 or 4 times the first row, and every entry is a whole number. That keeps the focus on the ratio structure, but it is easier than FDOE's example. The summer review tables and FAST practice use other multiples (a row 5, 6 or 7 times the first, or 3:5 next to 27:45).

Our call: Three columns means part, part, whole

We read "two- or three-column" with the clarification's example: a third column is the whole. So no table has three parts and no total, and none has four columns. In the three-column tables, in practice and in FAST practice, the target row shows one value and blanks the other two, so the student finds the row's multiplier from the one known value instead of adding or subtracting across the row.

3. How we built the questions

Easy questions show a complete two-column table (4 and 6 cups of flour and sugar, up to 16 and 24) and ask for the ratio in simplest form. Middle questions blank one cell with a question mark, in either column of a later row; the student finds the multiplier and types the value. Hard questions ask for a value past the end of the table: how many cups of melon go with 21 cups of grapes when the table stops at 12.

Three-column questions give two parts and a total (boys, girls, total) and ask for a part or the total. Every question on this benchmark reads or completes a table, including the summer review questions: a scale model's conversion chart (1 inch on the model for 24 on the car), a teacher-to-student ratio held for a bigger wing, and a table of equivalent rows scaled down to simplest form.

Wrong answers come from additive thinking (adding the same amount down a column), copying the known value, using the neighboring row's multiplier, reading the wrong column, and reversing the ratio (3:2 for 2:3). Our coverage gate checks that this benchmark's items carry the table FDOE's text calls for, and a lint rule fails any item without a table, with more than three columns, or with three columns and no total. FAST practice adds tables whose rows are not consecutive multiples and, at the top level, three-column part, part and total tables where the student scales the total past the end of the table.

Practice and quiz bank: 112 questions

Formats:
Equation editor 66%, Multiple choice 34%
Show a figure, table or graph:
100% (table 100%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.3.4Apply ratio relationships to solve percentage problemsApply ratio relationships to solve mathematical and real-world problems involving percentages using the relationship between two quantities.

1. FLDOE language, word for word

Benchmark MA.6.AR.3.4: Apply ratio relationships to solve mathematical and real-world problems involving percentages using the relationship between two quantities.

Example: Gerald is trying to gain muscle and needs to consume more protein every day. If he has a protein shake that contains 32 grams and the entire shake is 340 grams, what percentage of the entire shake is protein? What is the ratio between grams of protein and grams of non-protein?

Clarification 1: Instruction includes the comparison of part/whole to percent/100 in order to determine the percent, the part or the whole.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 19; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 79; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students solve percent problems by comparing part/whole with percent/100, as the clarification describes. Every item comes down to finding one of three things: the percent, the part, or the whole. FDOE's example asks what percent of a 340-gram protein shake is protein.

The limits keep it tight: "Items will only require the student to determine the percent, the part, or the whole," and items never require a unit conversion.

Our call: Three skills

We split the benchmark into finding the percent, finding the part and finding the whole, because each has its own typical mistake: reporting the part as the percent, a decimal-point slip when multiplying, and multiplying when the whole is missing.

Our call: One step from the given numbers

We read "only ... the percent, the part, or the whole" as one step from the numbers the item gives, and a complement taken straight from those numbers counts as part of that step. So some questions ask about the part that is NOT in a group: the percent of 250 light bulbs that are NOT defective when 15 are, how many of a choir's 120 singers are NOT sopranos when 15% are, or how many animals a zoo has when 12% are reptiles and 264 are NOT. No item asks for a sale price, a total with tax, how many are left once the whole is found, or a complement of a number the student must first work out (the percent NOT defective after adding two defect counts); those multi-step problems are grade 7 work. Discount, tip and tax questions ask for the amount of the discount, tip or tax, or for the price that a discount is a percent of.

Our call: Whole-number choices for counts

When a question asks how many of something there are (students, fish, tickets), every choice for that count is a whole number, so no choice can be ruled out on sight as 0.72 animals. The wrong choices there include the other part (the students who do not ride the bus), dividing by the complement, multiplying by the percent number, and a decimal point one place off.

3. How we built the questions

Finding-the-percent questions give a part out of a whole and ask for the percent, or for the percent NOT in the group. Easy ones scale to a denominator of 100; harder ones divide to a decimal such as 68.75%, or round (4 out of 9 is about 44%). Finding-the-part questions ask for 80% of 65 or a percent of a count, then money (the 8% tax on a $72 sweater). Finding-the-whole questions give the percent and the part (12% of a zoo's animals are reptiles, and there are 6 reptiles) and ask for the total.

Wrong answers are traceable slips. They include the part or its complement reported as the percent, a decimal point one place off, dividing the whole by the percent, taking the percent of the part, and dividing by 12 instead of 0.12. The complement and the answer moved one decimal place (1.3 or 130 beside 13) each appear in only some sets, and no set moves the point both ways. A question asking for a percent NOT in a group may offer the group's own percent, the given count as a percent with that count taken from 100 (30% and 70%), or the NOT count read as a percent (51% when 51 of 60 cookies are not chocolate chip). Answers are chosen, typed, matched or built from drop-downs. Summer review questions compare two groups by percent (18 of 24 peaches ripe against 26 of 40); the group with more ripe peaches has the smaller percent.

There are no figures on this benchmark. A lint rule fails any item that asks for a sale price, asks about the part NOT in a group (or the amount left) in more than one step from the numbers it gives, asks for a unit rate, converts units, or offers a decimal choice for a count. FAST practice adds two-part sale items (a discount, then the price a discount came from), percents such as 62.5%, and NOT questions (75 of 375 pastries are defective).

Practice and quiz bank: 312 questions

Formats:
Multiple choice 62%, Equation editor 30%, Multiselect 4%, Drop-down (editing task choice) 3%, Matching 2%
Show a figure, table or graph:
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FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.AR.3.5Solve real-world ratio, rate & unit-rate problems (incl. conversions)Solve mathematical and real-world problems involving ratios, rates and unit rates, including comparisons, mixtures, ratios of lengths and conversions within the measurement system.

1. FLDOE language, word for word

Benchmark MA.6.AR.3.5: Solve mathematical and real-world problems involving ratios, rates and unit rates, including comparisons, mixtures, ratios of lengths and conversions within the measurement system.

Clarification 1: Instruction includes the use of tables, tape diagrams and number lines.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Algebraic Reasoning (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 20; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 79; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

This benchmark gathers the ratio work into problems: comparisons, mixtures, ratios of lengths, and conversions within one measurement system. Tables, tape diagrams and number lines are named for instruction, not required on the test.

The limits matter here. Items state the relationship as a ratio, rate or unit rate; they never convert between customary and metric; and "Items will not require the student to only convert measurements." On the FAST a conversion is one step inside a larger ratio problem.

Our call: Three skills

We split the benchmark into comparing ratios and rates, splitting a total by a ratio, and rate problems that include a conversion, because each uses a different method. Ratios of lengths are in the summer review questions (scale models, maps, comparisons of rectangles) and in FAST practice.

Our call: A conversion is never the whole task

Every question with a conversion also states a ratio or a rate (7 feet of ribbon on each wreath, 8 quarts per minute, a model train at 1:48) and asks for an amount, a count or a time in a unit of the same system, so the student works with the ratio or rate as well as converting. No question asks only how many inches are in 7 feet; in FAST practice's two-part mixtures the second part converts the first part's answer, so the conversion is the last step of a mixture problem.

3. How we built the questions

Comparison questions give two or three win records, recipes or rates (Team A won 3 of 5 games, Team B won 4 of 7) and ask which is greater. The student turns each ratio into a decimal or finds each unit rate. Most options pair the winner with a reason or a rate. Wrong options include comparing numerators or totals, flipping the comparison, giving the winning rate to the other name, and claiming a tie that is not there. Mixture questions give a ratio and a total (juice and soda in a 3:1 ratio, 20 cups in all) and ask for one part, at the middle level from a tape diagram.

Conversion questions combine a rate with a count or a total in customary units (length, weight, capacity) or metric units (kilometers, grams, milliliters): 3 pints of soup in each of 5 jars is how many cups, 6 laps of 1,320 feet is how many miles, a 3,600-gallon pool filled at 8 quarts per minute. Wrong answers include skipping the conversion, converting one item only, using a neighboring factor (12 ounces in a pound), converting the wrong way, stopping a step early, and moving a decimal point too far.

Ratio-of-length questions work with a model train at 1:48, a map at 1 inch to 5 miles, two ribbons in the ratio 3:4 with one length in yards and the answer in inches, and flags or gardens compared by length-to-width ratio, where the longer one is the trap. Lint rules fail any item on this benchmark that only converts, states no ratio or rate, mixes customary and metric units, or is a percent problem. FAST practice adds two-part mixtures whose second part converts the answer (cups of cranberry juice to fluid ounces), and a ratio of two ribbon lengths with one length in yards and the answer in inches.

Practice and quiz bank: 312 questions

Formats:
Multiple choice 67%, Equation editor 24%, Matching 4%, Drop-down (editing task choice) 3%, Multiselect 3%
Show a figure, table or graph:
13% (visual model 13%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

Geometric Reasoning, Data Analysis, and Probability

25-36% of the FAST Grade 6 Mathematics

MA.6.GR.1.1Plot rational ordered pairs in all four quadrants; line of reflectionExtend previous understanding of the coordinate plane to plot rational number ordered pairs in all four quadrants and on both axes. Identify the x- or y-axis as the line of reflection when two ordered pairs have an opposite x- or y- coordinate.

1. FLDOE language, word for word

Benchmark MA.6.GR.1.1: Extend previous understanding of the coordinate plane to plot rational number ordered pairs in all four quadrants and on both axes. Identify the x- or y-axis as the line of reflection when two ordered pairs have an opposite x- or y- coordinate.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 20; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 79; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

This benchmark holds two skills. The first is plotting: students place and read ordered pairs anywhere on the coordinate plane, including points on an axis, with fractions and decimals as well as whole numbers. The second is reflection: given two points whose x- or y-coordinates are opposites, students name the axis that reflects one point onto the other.

The limits push the FAST past fifth-grade work. "Items that require the student to plot points in the first quadrant will not use whole number values," so a first-quadrant point on the test looks more like (2.5, 3.5) or (2 1/2, 3 1/2) than (3, 4). The plane must also be "scaled appropriately", which means half-unit points come on a grid that can show them.

Our call: No whole numbers in a first-quadrant plot

We read the limit strictly: when a student plots a point in the first quadrant, neither coordinate is a whole number, so (4.5, 3) is out as well as (3, 4). Whole-number points still appear in the other three quadrants and on the axes, where the limit does not reach. Questions in which the student does not plot, such as naming a quadrant, reading a drawn point or choosing where a moved point ends up, may still use whole-number first-quadrant points.

Our call: A grid that fits half-unit points

Whenever a half-unit point is drawn or plotted, whether written as a decimal (1.5) or a mixed number (2 1/2), the grid lines are 0.5 unit apart and the question says so. Every correct point sits exactly on a grid line, so a student who plots the right point always gets credit, and the grid stays small enough to read.

Our call: "Both axes" and "neither axis"

FDOE names only the x-axis and the y-axis. When we ask which axis reflects one point onto another, the choices also include "Both axes" and "Neither axis", and each of those is the right answer on some items: a pair where both signs change, or a pair where the coordinates trade places. Without them, a student could name an axis without checking which coordinate changed.

3. How we built the questions

For plotting, students click the point on an interactive coordinate plane, name the quadrant a point lies in, and read the coordinates of a point already drawn. The easiest plotting questions use halves in the first quadrant and whole numbers in the other three and on the y-axis; the next level adds halves in every quadrant and on both axes. The hardest are short stories: a kite at (-4, -5) drifts 7 units right and 12 units up, and the student finds where it lands. Whenever the student plots, the worked solution draws the answer point.

For reflections, students reflect a point across a named axis (choosing the image, picking each coordinate from a list, or matching four points to their images), identify the axis from a point and its image drawn on the plane, select every pair that shows a reflection across a given axis, and at the top level apply two reflections in a row.

Wrong answers come from the usual slips: swapping x and y, moving the wrong way on one axis, changing the sign of the wrong coordinate or of both, a swap and a lost sign together, and, in two-reflection questions, stopping after the first reflection, doing only the second, or assuming the two reflections cancel. Some questions show a named student's plotted point and ask what went wrong.

A lint rule fails any item that asks a student to plot a first-quadrant point with a whole-number coordinate, and any coordinate plane that draws or keys a point between its grid lines. The usual grid rules hold too: the answer lands on a grid line, both axes are in view, and the grid is not too dense to read. FAST practice adds its own quadrant, plotting, translation and reflection items; its two plotting items use (3.5, 1.5) and (-2 1/2, -4 1/2) on a half-unit grid.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 68%, Graphing (GRID) 19%, Drop-down (editing task choice) 6%, Multiselect 4%, Matching 3%
Show a figure, table or graph:
75% (coordinate plane 75%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.1.3Plot points to find perimeter or area of a rectangleSolve mathematical and real-world problems by plotting points on a coordinate plane, including finding the perimeter or area of a rectangle.

1. FLDOE language, word for word

Benchmark MA.6.GR.1.3: Solve mathematical and real-world problems by plotting points on a coordinate plane, including finding the perimeter or area of a rectangle.

Clarification 1: Instruction includes finding distances between points, computing dimensions of a rectangle or determining a fourth vertex of a rectangle.

Clarification 2: Problems involving rectangles are limited to cases where the sides are parallel to the axes.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 21; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 79; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Here the coordinate plane becomes a tool for solving problems. Students use the vertices of a rectangle to find its side lengths, perimeter or area, find a missing fourth vertex, or work back from an area to a missing side. FDOE's clarifications name exactly those tasks.

The limits keep every rectangle's sides parallel to the axes and every ordered pair an integer, and they allow all four quadrants. So the hard part is rarely the arithmetic. It is a side that crosses an axis, where the length is the sum of two distances rather than a difference.

Our call: Naming the corners

When a rectangle is named ABCD, the letters go around the rectangle in order, so the missing corner D is always the one across from B. That way the name of the rectangle agrees with the picture, the way students will read it in geometry.

3. How we built the questions

Questions that give all four vertices and ask for the area or perimeter draw the rectangle. They start in the first quadrant, then span the axes, then move into contexts: a garden plot, a dog run that needs fencing, a patio, each with a stated scale such as "each unit = 1 yard". A few add a cost step, such as $0.50 per square foot.

Vertex questions give three corners and ask for the fourth: students plot it, choose it, or pick its x and y from two lists. Harder ones give an area, such as 24 square units, and ask for the vertex or the missing side that produces it, sometimes for a rectangle that does not start at the origin.

Wrong answers come from counting grid points instead of units (one side or each side one too long, or one side one too short), adding the width and height, giving the perimeter for the area or the area for the perimeter, doubling only one side, and subtracting instead of adding across an axis. For the fourth vertex they come from measuring a side the wrong way from the right corner, swapped coordinates, the side lengths written as a point, a side miscounted by one, a dropped minus sign, and a coordinate copied from a given vertex. Error-analysis items ask which of these a named student made.

FAST practice joins the steps in two-part items: find the fourth vertex, then the area; or find a missing side from the area, then the perimeter. A lint rule fails any item with an ordered pair that is not an integer, or with a rectangle whose sides are not parallel to the axes.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 41%, Equation editor 40%, Graphing (GRID) 16%, Drop-down (editing task choice) 4%
Show a figure, table or graph:
86% (coordinate plane 86%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.1.2Find distances between ordered pairs sharing an x- or y-coordinateFind distances between ordered pairs, limited to the same x-coordinate or the same y-coordinate, represented on the coordinate plane.

1. FLDOE language, word for word

Benchmark MA.6.GR.1.2: Find distances between ordered pairs, limited to the same x-coordinate or the same y-coordinate, represented on the coordinate plane.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test) · Also assessed with MA.6.GR.1.3

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 21; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 79; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the distance between two points that share an x-coordinate or a y-coordinate, so the segment between them is vertical or horizontal. When both points are on the same side of an axis the distance is a difference; when they are on opposite sides it is the sum of two distances from the axis.

The limits allow all four quadrants and require integer ordered pairs. This benchmark is also assessed with MA.6.GR.1.3: on the FAST, distance questions show up inside the rectangle problems there, so the practice here is the groundwork for finding side lengths, perimeter and area.

Our call: When the points are drawn

When the student types the distance, both points are drawn on a coordinate plane. In the practice and quiz questions, the multiple-choice versions give the coordinates in words and draw the points, if at all, only in the worked solution, so a student cannot pick a choice by counting squares instead of working out the distance. FAST practice draws the points on its multiple-choice items too.

Our call: A map scale, not half units

Every ordered pair is an integer, as the limit requires, so the top level cannot get harder through half-unit coordinates such as (1.5, 4). It gets harder through a map scale instead. A map says what one unit stands for, such as 0.5 kilometer, 2 miles or 10 yards, so the student finds the distance in units and then uses the scale. Some top-level questions run it backwards: a park 12 kilometers south of a library, at 2 kilometers per unit, is 6 units away.

3. How we built the questions

The easiest questions mostly keep both points on one side of an axis, such as (2, 3) and (2, 8). The next level brings in negative coordinates, and most pairs cross an axis, such as (-10, 2) to (9, 2), where the two distances from the axis add. At the top level most questions are maps, with places named by their coordinates and a stated scale ("each unit represents 2 miles").

Other questions run the idea the other way. Point B is 12 units to the left of (7, 1): the student gives its coordinates or plots it. Some compare two segments and ask which is longer, and by how much.

Wrong answers match real mistakes: adding the coordinates when the points are on the same side, subtracting when they are on opposite sides, reporting a negative distance, counting the starting grid line as 1, giving one point's distance from 0 or the shared coordinate, and on a map, leaving the answer in grid units or dividing by the scale. Error-analysis items show a named student's work and ask which of these happened.

FAST practice has its own distance items at every level: typed distances with the points drawn, multiple-choice distances across an axis, and five map questions with a scale. A lint rule fails any item with an ordered pair that is not an integer, or with a distance between two points that share neither coordinate.

Practice and quiz bank: 100 questions

Formats:
Multiple choice 53%, Equation editor 19%, Multiselect 8%, Drop-down (editing task choice) 7%, Graphing (GRID) 7%, Matching 6%
Show a figure, table or graph:
26% (coordinate plane 26%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.2.1Derive & apply a formula for the area of a right triangleDerive a formula for the area of a right triangle using a rectangle. Apply a formula to find the area of a triangle.

1. FLDOE language, word for word

Benchmark MA.6.GR.2.1: Derive a formula for the area of a right triangle using a rectangle. Apply a formula to find the area of a triangle.

Clarification 1: Instruction focuses on the relationship between the area of a rectangle and the area of a right triangle.

Clarification 2: Within this benchmark, the expectation is to know from memory a formula for the area of a triangle.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Mathematical · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 21; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 80; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students see why a right triangle's area is half of a rectangle's (cut a rectangle along its diagonal and you get two identical triangles), then use area = 1/2 × base × height on any triangle. FDOE expects the formula to be known from memory, so no stem hands it to the student as a hint; some questions ask the student to choose it or explain it.

The one limit is "Items must give the vertical height for all triangles." A student never has to find a height, but does have to recognize which labeled length is the height, whether it is a side of the triangle, a dashed segment inside it, or a dashed segment outside it.

Our call: Labeling the slanted side

Most of our triangle figures also label a slanted side, such as 6, 8 and 10. With only the base and height printed, the only mistake left is forgetting the 1/2. With the slanted side printed too, the student has to pick the length that is perpendicular to the base, which is what the height limit is about, and using the slanted side as the height becomes a real wrong answer.

Our call: Heights inside and outside the triangle

The benchmark says "a triangle", not only a right triangle. Nearly a third of our triangle figures are acute, with the dashed height inside, or obtuse, with the dashed height outside and the base line extended to meet it. On a right triangle the height is always a side, so without these a student could learn that the height is the shorter leg.

3. How we built the questions

The main task is the area of a drawn triangle, first with whole numbers, then with decimal lengths, then as named objects such as a triangular sign or garden. The same idea also appears as matching four triangles to their areas, completing "Area = ___ = ___" from two menus, and choosing which expression gives the area.

The derivation has its own questions. A rectangular sheet 12 inches by 9 inches is cut along its diagonal: students find each triangle's area, type the whole sheet's area when they are given one triangle's area, or pick the statement that explains why the 1/2 is there.

Wrong answers are forgetting the 1/2 (offered in about 6 of every 10 area items), doubling instead of halving, halving twice, using the slanted side as the height or pairing the height with it, a misread decimal or mixed-number base (8.5 read as 8), and one adding slip: the base plus the height, half of that sum, twice that sum, or all three sides. No item shows more than one adding slip, and no choice is more than twice base × height. For a rectangle cut along its diagonal, the wrong answers are the whole rectangle, three quarters of it (the triangle counted as 3 of the rectangle's 4 corners), a quarter of it, and one edge sum. Where the correct answer falls among the choices changes from item to item, and when it is the smallest choice its double is never beside it. Error-analysis items show a named student's work and ask which of these happened; on some of them the triangle is obtuse and the student used the leaning side.

FAST practice uses the same mix: right triangles, mixed-number bases such as 3 1/2 feet, acute and obtuse triangles with the height drawn inside or outside, and an obtuse triangle with its slanted side labeled. A lint rule fails any triangle item whose figure has no height, whose height is a question mark, or that asks for the height instead of giving it.

Practice and quiz bank: 100 questions

Formats:
Multiple choice 64%, Equation editor 25%, Matching 4%, Multiselect 4%, Drop-down (editing task choice) 3%
Show a figure, table or graph:
92% (geometric figure 92%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.2.2Find area of quadrilaterals & composite figures by decompositionSolve mathematical and real-world problems involving the area of quadrilaterals and composite figures by decomposing them into triangles or rectangles.

1. FLDOE language, word for word

Benchmark MA.6.GR.2.2: Solve mathematical and real-world problems involving the area of quadrilaterals and composite figures by decomposing them into triangles or rectangles.

Clarification 1: Problem types include finding area of composite shapes and determining missing dimensions.

Clarification 2: Within this benchmark, the expectation is to know from memory a formula for the area of a rectangle and triangle.

Clarification 3: Dimensions are limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 22; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 80; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the area of quadrilaterals and composite figures by breaking them into rectangles and triangles, and they work backward to a missing dimension. The formulas for the area of a rectangle and a triangle are expected from memory.

The limits steer the FAST away from the easy cases. "Given quadrilaterals will not be rectangles or squares," so the quadrilaterals are rhombi, parallelograms and trapezoids. A composite made only of rectangles must have overlapping dimensions or at least one fraction or decimal, and every triangle comes with its vertical height.

Our call: A rhombus at the first level

Our easiest quadrilateral used to be a rectangle, which the limits rule out. It is now a rhombus: one multiplication, base × height, like the rectangle it replaced. It brings its own mistake, multiplying side by side as if the rhombus were a square.

Our call: Decimals on rectangle-only figures

Of the three ways FDOE allows (overlap, a fraction, a decimal), we use a decimal. Every L-shape and every rectangle with a hole has at least one length such as 10.5 ft, in the practice and quiz questions and in FAST practice, because a lint rule can check a decimal but not an overlap.

Our call: A missing height is still the vertical height

FDOE lists missing dimensions as a problem type, so some items ask for a triangle's or a parallelogram's height from its area. The question mark always sits on the vertical height, never on a slanted side, so the student still knows which length is the height.

3. How we built the questions

Quadrilateral questions climb from rhombi (four equal sides and a dashed height) to parallelograms (slanted side and height both labeled) to trapezoids. Composite questions move from L-shapes to rectangles with a hole (the outer rectangle minus the missing piece) to a rectangle with a triangle on top (found by adding). Questions name the part that counts, such as the figure with the hole removed, never "the shaded region", because the shading on screen is pale. In a missing-dimension figure the unknown is marked "?": the height of a parallelogram or triangle, or the depth of the notch in an L-shape.

Wrong answers come from named mistakes. Rhombus: side × side, twice side × height. Parallelogram: the base or the height times the slanted side, halving, adding lengths, the perimeter. Trapezoid: one base only, half of one base, the bases multiplied, every length added. Missing piece: the outer rectangle, the cutout alone, one piece only, subtracting the cutout's side lengths, the cutout twice or a full strip (fill-in items also offer adding the cutout). Missing dimensions: adding or subtracting instead of dividing, halving the area, dividing by twice the base, half the area minus the base, the labeled length; for triangles also twice the area and forgetting to double. No choice is bigger than the figure allows (base × slanted side, the rectangle around a trapezoid), and at most one missing length exceeds the printed area. Error-analysis items build on these, including a trapezoid missing its 1/2.

FAST practice uses parallelograms and trapezoids and adds two-part items: the area of one piece, then the whole figure. A lint rule fails any item whose given quadrilateral is a rectangle or a square, any L-shape or rectangle with a hole whose lengths are all whole numbers, and any triangle drawn without its height.

Practice and quiz bank: 300 questions

Formats:
Multiple choice 52%, Equation editor 38%, Multiselect 4%, Drop-down (editing task choice) 3%, Matching 3%
Show a figure, table or graph:
96% (geometric figure 96%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.2.3Find the volume of right rectangular prisms (rational edge lengths)Solve mathematical and real-world problems involving the volume of right rectangular prisms with positive rational number edge lengths using a visual model and a formula.

1. FLDOE language, word for word

Benchmark MA.6.GR.2.3: Solve mathematical and real-world problems involving the volume of right rectangular prisms with positive rational number edge lengths using a visual model and a formula.

Clarification 1: Problem types include finding the volume or a missing dimension of a rectangular prism.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 22; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 80; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the volume of a right rectangular prism, or a missing edge from the volume, when the edge lengths can be fractions or decimals. The benchmark asks for both a visual model and a formula, so students should connect filling a box with cubes to multiplying length, width and height.

The limit "Items must include at least one fractional or decimal edge length" means the FAST never asks about a prism whose edges are all whole numbers.

Our call: The visual model

Our packing questions fill a box with cubes whose edges are 1/2 unit: 6 cubes long, 4 wide and 3 high makes a box 3 by 2 by 1.5 units. That keeps the edges fractional while the cube count stays whole. Students go from the cube count to the volume, from the edge lengths to the number of cubes, or from the count and the bottom layer to the height. When the count is given, the figure labels each edge with its number of cubes; when the student has to find the count, it labels the edges in units. It never draws every cube, because our prism drawing cannot show the cubes yet.

Our call: What "depth" means

For a vessel such as a reservoir, a tank, a tub or a planter we keep the word depth, and it always means the vertical edge, marked ? in the figure. Those questions say so in words, so a student does not have to guess whether depth means front to back. A plain rectangular prism always asks for its height, and when the contents of one container are moved into another, the question asks how high the sand reaches or how deep the soil or water is.

Our call: The easiest level still has a decimal

To meet the limit at every level, the first level gives an edge a half unit, such as a prism 5.5 by 4 by 3 centimeters. The later levels add more decimals and real containers, then fractions.

3. How we built the questions

Volume questions give a labeled prism. Every item includes a fraction or a decimal edge: a half-unit edge at the first level, then decimals (a fish tank with a volume of 33.75 cubic feet), then fractions such as 5/6, 1/2 and 1/3. Missing-edge questions give the volume and two edges, and the student divides by the base area. Two-step same-volume questions give one prism's edges and a second prism's base and ask for the second prism's height. At the first level, Box B holds the same volume as Box A; later levels also move the contents of one container into another, such as sand from a sandbox into a storage bin, soil from a dump truck bed into a garden bed, or water from a loaf pan, a tray or a trough into a vase or a tank, and ask how high the sand reaches or how deep the soil or water is.

Wrong answers are adding the three edges, multiplying only two of them (the area of one face), finding the surface area, adding one face's area to the volume, doubling or halving the answer, dividing by one base edge instead of the base area, stopping before the division (giving the volume or the base area), giving a labeled edge, subtracting instead of dividing, and multiplying fractions without multiplying the denominators. Error-analysis items ask which of these a named student made.

FAST practice uses two-part items: find the volume, then the height of a second prism with the same base and a new volume. A lint rule fails any item whose given edges, volume and labels are all whole numbers.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 45%, Equation editor 44%, Multiselect 5%, Matching 5%, Drop-down (editing task choice) 2%
Show a figure, table or graph:
95% (geometric figure 95%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.GR.2.4Find the surface area of right rectangular prisms & pyramids (via nets)Given a mathematical or real-world context, find the surface area of right rectangular prisms and right rectangular pyramids using the figure's net.

1. FLDOE language, word for word

Benchmark MA.6.GR.2.4: Given a mathematical or real-world context, find the surface area of right rectangular prisms and right rectangular pyramids using the figure's net.

Clarification 1: Instruction focuses on representing a right rectangular prism and right rectangular pyramid with its net and on the connection between the surface area of a figure and its net.

Clarification 2: Within this benchmark, the expectation is to find the surface area when given a net or when given a three-dimensional figure.

Clarification 3: Problems involving right rectangular pyramids are limited to cases where the heights of triangles are given.

Clarification 4: Dimensions are limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Both · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 23; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 80; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the surface area of right rectangular prisms and pyramids by adding the areas of the faces, working from a net or from a drawing of the solid. For a pyramid, the height of each triangular face (the slant height) is always given.

Two limits set the approach. "Items will not require the student to find surface area using the formula," so the method is face by face rather than a memorized expression. And items may show a solid and ask for the matching net with its dimensions, then its surface area.

Our call: Net or solid

FDOE expects surface area "when given a net or when given a three-dimensional figure", so we use both. Most prism questions at the first levels show a net; real-world boxes are shown as solids (except in net questions), so the student has to picture all six faces. Square pyramids appear both ways. Rectangular pyramids, with two sizes of triangle, appear as nets. A question that asks for the net draws four candidate nets and gives the solid's edge lengths in words, except one two-part FAST practice item that also draws the solid.

Our call: No working backward

We do not ask for a box's height or a pyramid's slant height from its surface area. FDOE lists missing dimensions as a problem type for 6.GR.2.2 and 6.GR.2.3 but not here, and solving backward uses the structure of the formula the limit keeps out. The hardest items instead give a solid and ask for its net, then its surface area.

Our call: Faces that are not covered

Some context questions leave one face out: a shed whose walls and roof are painted but not its floor, a gift box wrapped on every face except the bottom. The question names the missing face in words, because our prism drawing always shows a closed box.

3. How we built the questions

Prism questions add face pairs (top and bottom, front and back, the two ends), and the worked solution follows that order; pyramid questions add the base and the triangles. Other versions match each pair of faces to its total area (shuffled, with one value left over), select every expression equal to the surface area (the two wrong ones make the same mistake, so their values match too), or ask how many cans of paint cover a chest.

Choosing the net: the student picks which of four drawn nets, labeled A to D, folds into a given box or square pyramid. The wrong nets: for a box, the top and bottom with the wrong edges (always), a box with one edge used twice, a missing or seventh face, or both flaps on one side; for a pyramid, the base edge and slant height swapped (always), a second square, or three triangles. Two nets always have wrong-size faces, so neither the familiar shape nor a face count finds the answer. Some are two-part items: the net, then its surface area. Top-level pyramids use decimals, such as a 4.5 cm base.

Wrong answers for prisms: one face of each pair, a pair left out or counted twice, faces with the wrong edges, covering every face when one is left bare or leaving out the wrong one, and the volume; for cubes, one, three, four or five faces, all six counted twice, the edge times 6, and the twelve edges added. For pyramids: only the base, no base, the base twice, one to three triangles instead of four, a pair of triangles counted twice, no 1/2 in each triangle, and one slant height for both pairs on a rectangular pyramid.

FAST practice has similar prism and pyramid items, some split into two parts: the base area, then the total, or the net, then the surface area. A lint rule fails any pyramid item without its slant heights and any item that gives a surface area and asks for a length.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 59%, Equation editor 39%, Multiselect 4%, Matching 4%
Show a figure, table or graph:
100% (geometric figure 100%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.1Recognize & formulate a statistical question generating numerical dataRecognize and formulate a statistical question that would generate numerical data.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.1: Recognize and formulate a statistical question that would generate numerical data.

Example: The question "How many minutes did you spend on mathematics homework last night?" can be used to generate numerical data in one variable.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 23; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 81; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

A statistical question expects answers that vary. "How many minutes did you spend on homework last night?" gets a different number from each student; "How many minutes are in an hour?" has one answer. The benchmark adds that the question should produce numerical data, and it asks students to write such questions as well as recognize them.

FDOE lists no assessment limits here, and nothing has to be computed. The whole skill is judging the question.

Our call: "Formulate" without free writing

Every item in our bank is scored automatically, so students do not write their own questions. Instead, the hardest level gives a purpose (a school nurse studying health habits, a coach studying endurance) and asks which question should be asked. Picking the question that fits the purpose is the part of writing one that we can check.

Our call: The word "each"

Students often read "each" as a sign that answers vary. So some wrong choices use it on a question with one fixed answer, such as "How many minutes long is the lunch period for each 6th grader?" The school sets that number, so every student gives the same answer.

Our call: Fixed facts that really are fixed

A question offered as not statistical must have exactly one answer for everyone. We dropped examples whose answers vary or depend on a rule or convention, such as the bones in a body, the colors in a rainbow, the number of continents, the players on a field, the quarters in a basketball game (overtime) or the wheels on a car, and used facts that are fixed by definition instead, such as the days in a week or the sides of a hexagon. A lint rule flags the dropped examples if they come back.

3. How we built the questions

The first level sorts four questions into statistical and not statistical. The second asks students to select every statistical question from a list of five. The third gives a real purpose and asks for the one question that would collect the needed data, or asks students to respond to a classmate's wrong claim about a question.

Every statistical answer in the bank is a number that varies: minutes of exercise, heights, shoe sizes, bedtimes. The questions that are not statistical have one fixed answer: the number of sides of a hexagon, the minutes in an hour, the year the school was founded.

FAST practice adds items that ask which question is not statistical, why a question is statistical (because different students give different answers, not because the answer is a number), and which question could have led to a stated conclusion. No item on this benchmark uses a figure.

Practice and quiz bank: 100 questions

Formats:
Multiselect 40%, Matching 30%, Multiple choice 30%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.2Find & interpret mean, median, mode & range of a numerical data setGiven a numerical data set within a real-world context, find and interpret mean, median, mode and range.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.2: Given a numerical data set within a real-world context, find and interpret mean, median, mode and range.

Example: The data set {15, 0, 32, 24, 0, 17, 42, 0, 29, 120, 0, 20}, collected based on minutes spent on homework, has a mode of 0.

Clarification 1: Numerical data is limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 24; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 81; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students find the mean, median, mode and range of a real-world data set and say what each one tells about the situation. The data are rational numbers, never negative, and may include 0 (see our call). The limits keep sets to 20 values or fewer and never ask for the mean of more than 10.

FDOE also says the data must appear "as a set using braces, graphically, or in a table." So the student always gets the data itself, never only a summary of it, and reads the values from a set in braces, a plot or a table before computing anything.

Our call: Four skills

We split this benchmark into four skills: finding the mean, finding the median, finding the mode and range, and choosing between the mean and the median. Each has its own method and its own mistakes, and a student who can find a median may still choose the mean for a list of salaries with one huge value.

Our call: What "interpret" means

We read "interpret" two ways: saying what a measure tells someone in the story (the most common number of scoops in an order, how spread out the bus arrival times were), and choosing the measure that best describes a typical value when one value sits far from the rest.

Our call: Zero is allowed

The clarification limits the data to positive rational numbers, but FDOE's own example set includes zeros. We follow the example: a data set may include 0 where the story makes it ordinary (a student with 0 siblings, a day when a class collected 0 cans, a player who scored 0 goals this season), and no value is ever negative.

3. How we built the questions

Mean questions go from adding and dividing, to finding the missing value that gives a target mean, to finding the new mean after a value is replaced, removed or added. Median questions go from a short sorted set to an unsorted set with an even count, where the two middle values are averaged. Mode and range questions include data sets with two or three modes.

Every item shows its data inside a real situation: a set in braces, such as the minutes students waited for the bus, a dot plot, or a table. Wrong answers are sizes a student could believe: a mean choice always lies inside the data's range, and when a change pushes the mean up or down, a wrong answer moves that way too. They include dividing by the wrong count, leaving a value out of the sum, averaging the middle values without sorting first, the point halfway between the least and greatest values, and, on dot plots, the height of the tallest stack given as the mode.

Choosing questions show a set with one value far from the rest, where the median is the better choice, and sets with no outlier, where the mean is. Harder ones give two groups' data sets with the same mean; students find each median and decide which group has extreme values pulling its mean. Mode questions always use numbers, such as the number of scoops in each order, never categories like favorite flavors, because the benchmark calls for a numerical data set. FAST practice adds two-part items: compute a mean, then choose the measure that fits.

A lint rule fails any item that writes its data as a bare list, gives only a summary with no data, or uses a negative value.

Practice and quiz bank: 400 questions

Formats:
Multiple choice 66%, Equation editor 13%, Drop-down (editing task choice) 11%, Multiselect 9%, Matching 1%
Show a figure, table or graph:
23% (table 13%, data display (graph or plot) 10%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.3Read a box plot: min, quartiles, median & max; describe distributionGiven a box plot within a real-world context, determine the minimum, the lower quartile, the median, the upper quartile and the maximum. Use this summary of the data to describe the spread and distribution of the data.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.3: Given a box plot within a real-world context, determine the minimum, the lower quartile, the median, the upper quartile and the maximum. Use this summary of the data to describe the spread and distribution of the data.

Example: The middle 50% of the population can be determined by finding the interval between the upper quartile and the lower quartile.

Clarification 1: Instruction includes describing range, interquartile range, halves and quarters of the data.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 24; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 81; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

The box plot is given. The student reads the minimum, lower quartile, median, upper quartile and maximum from it, then uses that summary to describe the data: the range, the interquartile range, and how much of the data falls in each half or quarter.

The limits list the words students may need (symmetry, skewed, outliers, halves, quarters and others) and allow vertical or horizontal number lines. Because the plot is given, the skill is reading and describing it. Computing quartiles from a list belongs to building a box plot in MA.6.DP.1.5.

Our call: Box plot first

An earlier version of our bank mostly handed students a list of numbers and asked for the interquartile range. Because the benchmark starts with "Given a box plot", every practice and quiz question and every FAST practice item now shows one, and quartiles from a raw list moved to MA.6.DP.1.5.

Our call: Parts of a box plot as quarters

Percent questions use the fact that each of the four parts of a box plot holds about a quarter of the data, so the answers are 25%, 50% or 75%. Count questions use a total that divides by 4, such as 24 students, so the count in each part is a whole number.

Our call: Outliers without a formula

The limits let items use the word "outlier", but grade 6 gives no rule for finding one. Our outlier questions use plots where the method does not matter: the long whisker is longer than the rest of the plot put together and also longer than 1.5 times the IQR, while the short whisker is too short to hold an outlier either way. On plots with no outlier, neither whisker is longer than the box.

3. How we built the questions

In practice and quiz questions, the first level reads a single box plot in a real-world context and asks for one of its five values, the range or the interquartile range, such as the first quartile of daily park visitors. The second uses the summary: the interquartile range, the percent or number of values in part of the plot, which quarter is most spread out, whether a claim about the plot is true, the shape of the data, and whether a value could be an outlier. On every single-plot question each value sits on a tick mark, so it reads exactly.

The top level compares two box plots on center, on the spread of the middle half, or on range and IQR together. On the multiple-choice versions, two choices start with each group's name, so the name gives nothing away. Spread answers read like "Class A, because its IQR of 20 is greater than Class B's IQR of 10", and each wrong reason cites a true fact about another measure, such as a higher maximum, or gets backwards what a larger IQR means. Center answers state the comparison and what it means ("so a typical fish length for Lake A is lower"); the wrong ones claim every value in one group beats every value in the other, read the wrong line of a box, or draw a conclusion the measure cannot support.

Shape questions ask for the shape (symmetric, skewed left or skewed right) and the reason in two menus. The wrong shapes include naming the skew for the side where the data bunch up, and the wrong reasons include a fact true of every box plot (each part holds about 25% of the data).

One gap remains: every plot is horizontal, because our display has no vertical mode yet, although FDOE allows vertical number lines. FAST practice also shows a box plot on every item; it adds two-part items that read one group's Q3 or IQR and then compare two groups, plus a shape question and an outlier question.

Practice and quiz bank: 100 questions

Formats:
Multiple choice 66%, Equation editor 17%, Drop-down (editing task choice) 13%, Multiselect 4%
Show a figure, table or graph:
100% (data display (graph or plot) 100%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.4Describe spread/distribution of a histogram or line plotGiven a histogram or line plot within a real-world context, qualitatively describe and interpret the spread and distribution of the data, including any symmetry, skewness, gaps, clusters, outliers and the range.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.4: Given a histogram or line plot within a real-world context, qualitatively describe and interpret the spread and distribution of the data, including any symmetry, skewness, gaps, clusters, outliers and the range.

Clarification 1: Refer to K-12 Mathematics Glossary (Appendix C).

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 25; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 81; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students describe a histogram or line plot in words: its shape (symmetric or skewed), where the data cluster, any gaps or outliers, and the range. The point is to say, in context, what the shape tells about the people or things measured.

The limits rule out computing statistics: "Items will not require the student to calculate statistical measures or describe a plot using a statistical value, except range." So a mean or median never appears: the only numbers a student works out are the range and counts read off the bars or dots.

Our call: Line plot means dot plot

FDOE's line plot is a number line with a mark above it for each data value. Our figures draw that display with dots, and the questions call it a dot plot. Every item shows a histogram or a dot plot, never a bar graph of categories.

Our call: Uniform and symmetric

We use four shape words: symmetric, skewed right, skewed left and uniform. A flat display is both uniform and symmetric, so it keys "uniform", the more specific word, and any item that offers both words for a flat display asks for the word that BEST describes it. Shape questions use the same wording whatever the answer, so the wording never hints at it.

Our call: Comparing without numbers

When two groups are compared, the choices talk about which has the higher center or the wider spread, judged from the plots, never from a computed mean or median. The worked solutions describe a dot plot by where its dots sit, not by an average, and no answer reads the peak as a typical value. A histogram does not show the exact least and greatest values, so when the spread of two histograms is compared the solutions bound each range (at most for the narrow one, at least for the wide one), and the pairs are built so the comparison is certain. That keeps the items inside the limit on statistical measures.

3. How we built the questions

The first level names the shape of a histogram. The next adds dot plots with gaps, clusters and outliers, and asks which interval holds the most data. The top level compares two plots, draws a conclusion from where most of the data sit (which ages a movie ad should aim at), and explains what a long tail means.

Every display comes with a real-world story, such as test scores for two classes or wait times at two food trucks. Wrong answers come from real misreadings: taking the height of the tallest bar as a data value, calling the interval farthest to the right the most common, deciding that the group with more data in one bar or stack is the one with higher values, and claiming "most" for a peak that holds less than half of the data.

The shape word is computed from the data, so the answer cannot disagree with the picture. When two plots are compared they share one scale, and the generator refuses to build a pair that does not, so a wider spread really looks wider. FAST practice adds questions about where a gap falls, a histogram of ages at a family swim night with two clusters, and how the interval width of a histogram can hide or reveal gaps and clusters.

A lint rule fails any item that shows a display other than a histogram or dot plot, labels its axis only "Value", or names a mean, median or other statistic.

Practice and quiz bank: 100 questions

Formats:
Multiple choice 75%, Drop-down (editing task choice) 11%, Multiselect 10%, Matching 4%
Show a figure, table or graph:
100% (data display (graph or plot) 100%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.5Create box plots and histograms from real-world dataCreate box plots and histograms to represent sets of numerical data within real-world contexts.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.5: Create box plots and histograms to represent sets of numerical data within real-world contexts.

Example: The numerical data set {15, 0, 32, 24, 0, 17, 42, 0, 29, 120, 0, 20}, collected based on minutes spent on homework, can be represented graphically using a box plot.

Clarification 1: Instruction includes collecting data and discussing ways to collect truthful data to construct graphical representations.

Clarification 2: Within this benchmark, it is the expectation to use appropriate titles, labels, scales and units when constructing graphical representations.

Clarification 3: Numerical data is limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 25; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 82; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students build box plots and histograms from real-world data, with appropriate titles, labels, scales and units. A box plot needs the five-number summary; a histogram needs sensible intervals and the count in each one.

The limits keep data sets to 20 values or fewer and allow no statistics beyond what a box plot needs, so the IQR, the mean and outlier rules stay out of this benchmark. FDOE limits the data to positive rational numbers.

Our call: Building the plot on screen

About a quarter of the practice and quiz questions have students build the plot themselves: they place five handles at the five-number summary to make a box plot, or set one bar for each given interval to make a histogram, and every value is graded. The rest practice the steps around a plot: finding Q1, the median and Q3 from a list; choosing which of four box plots, or which five-number summary, matches a data set; choosing an interval width; reading the count in one interval; and checking statements about a finished histogram.

Our call: Quartiles, and no outlier rule

For an odd number of values, the median is left out of both halves before Q1 and Q3 are found, and the worked solution shows the two halves. A box plot to build from an odd number of values says so in the question, so the method is never a guess. FDOE allows no statistics beyond those a box plot needs, so no question asks for the IQR or an outlier fence. When a value sits far from the rest, the whisker simply runs to it, because a box plot's whiskers reach the least and greatest values.

Our call: Intervals in words

Histogram intervals are written the way the FAST writes them, "from 60 to less than 70", never in interval notation such as [60, 70). So a value on an edge belongs to the bar that starts there. Every histogram to build says that rule in words, and when its data has such a value, the worked solution says where it goes.

3. How we built the questions

Box-plot questions start with 7 sorted values from a real-world setting, where each quartile is one middle value, then 8, where a quartile averages two. At the top level, 9 unsorted values hold one far value: students sort them, then find a quartile or the median, pick the five-number summary, or build the plot with a whisker out to the far value. Every level has box plots to build. A practice or quiz question that starts from a list alone ends its worked solution with the finished box plot, and every drawn box plot has a title and a value axis labeled with its unit, such as Time (minutes).

Wrong plots to pick from come from real construction errors: the range cut into four equal parts, the median halfway between the extremes, the median counted in both halves, or whiskers stopped one value short. The practice and quiz generator checks that the four plots look different. Wrong five-number summaries count the median in both halves, drop the far value, skip sorting, or stop the whiskers short.

Histogram questions read the count in one interval, choose an interval width (multiple-choice options state the bar count; dropdowns ask for it), pick true statements about shape and peak, or build the histogram over given intervals: from a sorted list first, then from unsorted lists with values on interval edges, with some decimals at the top level. Data sets have 20 values or fewer, and the generator calls a histogram skewed only when its bars visibly lean. FAST practice adds two-part items (a quartile, then the matching box plot or summary) and one box plot and one histogram to build.

A lint rule fails any item that asks for the IQR, a fence or a mean, shows more than 20 data points, writes an interval in interval notation, opens with a bare data list and no context, or has a plot to build with no title or axis labels.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 45%, Graphing (GRID) 25%, Multiselect 13%, Equation editor 10%, Drop-down (editing task choice) 7%, Matching 2%
Show a figure, table or graph:
53% (data display (graph or plot) 53%)

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

MA.6.DP.1.6Describe how changes in data values affect center & variationGiven a real-world scenario, determine and describe how changes in data values impact measures of center and variation.

1. FLDOE language, word for word

Benchmark MA.6.DP.1.6: Given a real-world scenario, determine and describe how changes in data values impact measures of center and variation.

Clarification 1: Instruction includes choosing the measure of center or measure of variation depending on the scenario.

Clarification 2: The measures of center are limited to mean and median. The measures of variation are limited to range and interquartile range.

Clarification 3: Numerical data is limited to positive rational numbers.

FDOE's test item specifications set assessment limits for this benchmark. How they shaped the questions is described below.

Context: Real-world · Calculator: Available · Reporting category: Geometric Reasoning, Data Analysis, and Probability (25-36% of the test)

Source: Grade 6 Mathematics Test Item Specifications (FDOE draft, Aug. 2023), p. 26; Florida's B.E.S.T. Standards: Mathematics (FDOE, 2020), p. 82; Test Design Summary and Blueprint: FAST Mathematics and B.E.S.T. EOCs (FDOE, updated Feb. 5, 2025), p. 4.

2. How Algebro reads it

Students predict and explain how changing the data (replacing, removing or adding a value) moves the mean, the median, the range and the interquartile range. The measures are limited to those four, and the data are positive rational numbers.

The limit says that choosing a measure of center or variation "must be based on the effect of changes made to the data set." The central idea is that one far-off value pulls the mean and the range a lot, and the median and the IQR only a little.

Our call: Starting from mean equals median

When a question asks which way, or how far, a change moves the mean and the median, the starting data set is evenly spaced, so the two measures start out equal and the question states both. Whatever difference appears afterward comes from the change alone.

Our call: "Significantly" and "slightly"

The menus describe the mean as changing significantly when it shifts by at least one step between neighboring data values, and slightly when it shifts less. Because the median depends on position, one new value moves it slightly or not at all.

Our call: Choosing a measure after a change

Every question that asks which measure best describes the data first gives the data and its measures, then changes the data: one or two far values are added, so the median or the IQR describes the data better, or a value that does not belong (a typing mistake, a broken scale's reading, a one-time purchase) is corrected or removed, so the mean or the range does. Once nothing is far from the rest, both measures of a pair describe the data fairly, so that second kind is asked only as a four-choice question where each measure comes with a reason and only one reason is true. The mode never appears, because FDOE limits this benchmark to the mean, the median, the range and the IQR.

3. How we built the questions

Every question is set in a real-world scenario, such as pages read, customers served or test scores. The center skill starts with menus: after 18 is replaced by 100, the mean will increase significantly and the median will stay the same. Next, students decide which measure changes more and by how much, then find the score needed on the next test to reach a target mean.

The variation skill starts with the new range after an endpoint changes, then asks what adding an outlier or a middle value does to the range and the IQR. Every answer statement is checked against the recomputed range and IQR before the item is built.

The hardest questions ask which measure best describes a typical value or a typical spread after a change. The practice and quiz generator recomputes the measures and checks that the change moves the range far more than the IQR, or the mean far more than the median, before it keys the answer. Wrong answers include thinking a far value is simply ignored, that both measures change equally, that the IQR grows more than the range, and that the range describes the middle half. FAST practice adds two-part items: the new mean, then which measure of spread moved more.

A lint rule fails any choosing question that does not describe a change, any item that names the mode, any negative data value and any change to zero.

Practice and quiz bank: 200 questions

Formats:
Multiple choice 56%, Equation editor 22%, Drop-down (editing task choice) 19%, Multiselect 3%, Matching 1%
Show a figure, table or graph:
0%

FAST practice bank

Grade 6 FAST practice comes from an earlier question bank that this page does not measure yet.

Grade 6 B.E.S.T. Math Benchmarks: FLDOE Language and How Algebro Reads Them | Algebro