MCAS Objectives, Grades 5–6

Grades 7–8 MCAS Objectives
Grades 9–10 MCAS Objectives
Mathematics Curriculum Framework (Massachusetts Department of Elementary & Secondary Education)

MCAS stands for Massachusetts Comprehensive Assessment System.

As required by the Massachusetts Education Reform Act of 1993,
students must pass the grade 10 MCAS tests in English Language Arts and Mathematics
as one condition of eligibility for a high school diploma (in addition to fulfilling local requirements).

In addition, the MCAS program is used to hold Massachusetts schools and districts accountable, on a yearly basis,
for the progress they have made toward the objective of the No Child Left Behind Act
that all students be proficient in Reading and Mathematics by 2014.

MCAS tests measure how well students have learned the academic standards outlined in the Massachusetts Curriculum Frameworks.
All Massachusetts public school students take MCAS tests: each year in grades 3 through 8, and at least once in high school (usually grade 10).

This page lists the Learning Standards that form the basis for MCAS.

Five strands organize the MCAS mathematics content:

Each learning standard has a unique identifier (like 6.N.2) that consists of:

For example,   6.N.2   is a 6th grade standard in the ‘Number Sense and Operations’ strand, and it is the 2nd standard in this strand.

The learning standards specify what students should know at the end of each grade span.
Students are held responsible for learning standards listed at earlier grade spans as well as their current grade span.

6.N.1 Demonstrate an understanding of positive integer exponents, in particular, when used in powers of ten, e.g., $\,10^2\,$, $\,10^5\,$.
6.N.2 Demonstrate an understanding of place value to billions and thousandths.
6.N.3 Represent and compare very large (billions) and very small (thousandths) positive numbers in various forms such as expanded notation without exponents, e.g., $\,9724=9\times 1000 + 7\times 100 + 2\times 10 +4\,$.
6.N.4 Demonstrate an understanding of fractions as a ratio of whole numbers, as parts of unit wholes, as parts of a collection, and as locations on the number line.
6.N.5 Identify and determine common equivalent fractions, mixed numbers, decimals, and percents.
6.N.6 Find and position integers, fractions, mixed numbers, and decimals (both positive and negative) on the number line.
6.N.7 Compare and order integers (including negative integers), and positive fractions, mixed numbers, decimals, and percents.
6.N.8 Apply number theory concepts—including prime and composite numbers, prime factorization, greatest common factor, least common multiple, and divisibility rules for $\,2\,$, $\,3\,$, $\,4\,$, $\,5\,$, $\,6\,$, $\,9\,$, and $\,10\,$—to the solution of problems.
6.N.9 Select and use appropriate operations to solve problems involving addition, subtraction, multiplication, division, and positive integer exponents with whole numbers, and with positive fractions, mixed numbers, decimals, and percents.
6.N.10 Use the number line to model addition and subtraction of integers, with the exception of subtracting negative integers.
6.N.11 Apply the Order of Operations for expressions involving addition, subtraction, multiplication, and division with grouping symbols ($\,+\,$, $\,-\,$, $\,\times\,$, $\,\div\,$).
6.N.12 Demonstrate an understanding of the inverse relationship of addition and subtraction, and use that understanding to simplify computation and solve problems.
6.N.13 Accurately and efficiently add, subtract, multiply, and divide (with double-digit divisors) whole numbers and positive decimals.
6.N.14 Accurately and efficiently add, subtract, multiply, and divide positive fractions and mixed numbers. Simplify fractions.
6.N.15 Add and subtract integers, with the exception of subtracting negative integers.
6.N.16 Estimate results of computations with whole numbers, and with positive fractions, mixed numbers, decimals, and percents. Describe reasonableness of estimates.
6.P.1 Analyze and determine the rules for extending symbolic, arithmetic, and geometric patterns and progressions.
For example:
$1\,$, $\,5\,$, $\,9\,$, $\,13\,$, $\,\ldots\ $
$\,3\,$, $\,9\,$, $\,27\,$, $\,\ldots\,$
6.P.2 Replace variables with given values and evaluate/simplify, e.g., $\,2(\Delta) + 3\,$ where $\,\Delta = 4\,$.
6.P.3 Use the properties of equality to solve problems.
For example:
if $\,\Box + 7 = 13\,$, then $\,\Box = 13-7\,$, therefore $\,\Box =6\,$.
if $\,3\times\Box=15\,$, then $\,\frac13\times 3\times\Box = \frac13\times 15\,$, therefore $\,\Box = 5\,$.
6.P.4 Represent real situations and mathematical relationships with concrete models, tables, graphs, and rules in words and with symbols, e.g., input-output tables.
6.P.5 Solve linear equations using concrete models, tables, graphs, and paper-pencil methods.
6.P.6 Produce and interpret graphs that represent the relationship between two variables in everyday situations.
6.P.7 Identify and describe relationships between two variables with a constant rate of change. Contrast these with relationships where the rate of change is not constant.
6.G.1 Identify polygons based on their properties, including types of interior angles, perpendicular or parallel sides, and congruence of sides, e.g., squares, rectangles, rhombuses, parallelograms, trapezoids, and isosceles, equilateral, and right triangles.
6.G.2 Identify three-dimensional shapes (e.g., cubes, prisms, spheres, cones, and pyramids) based on their properties, such as edges and faces.
6.G.3 Identify relationships among points, lines, and planes, e.g., intersecting, parallel, perpendicular.
6.G.4 Graph points and identify coordinates of points on the Cartesian coordinate plane (all four quadrants).
6.G.5 Find the distance between two points on horizontal or vertical number lines.
6.G.6 Predict, describe, and perform transformations on two-dimensional shapes, e.g., translations, rotations, and reflections.
6.G.7 Identify types of symmetry, including line and rotational.
6.G.8 Determine if two shapes are congruent by measuring sides or a combination of sides and angles, as necessary; or by motions or series of motions, e.g., translations, rotations, and reflections.
6.G.9 Match three-dimensional objects and their two-dimensional representations, e.g., nets, projections, and perspective drawings.
6.M.1 Apply the concepts of perimeter and area to the solution of problems. Apply formulas where appropriate.
6.M.2 Identify, measure, describe, classify, and construct various angles, triangles, and quadrilaterals.
6.M.3 Solve problems involving proportional relationships and units of measurement, e.g., same system unit conversions, scale models, maps, and speed.
6.M.4 Find areas of triangles and parallelograms. Recognize that shapes with the same number of sides but different appearances can have the same area. Develop strategies to find the area of more complex shapes.
6.M.5 Identify, measure, and describe circles and the relationships of the radius, diameter, circumference, and area (e.g., $\,d = 2r\,$, $\,\pi = \frac{C}{d}\,$), and use the concepts to solve problems.
6.M.6 Find volumes and surface areas of rectangular prisms.
6.M.7 Find the sum of the angles in simple polygons (up to eight sides) with and without measuring the angles.
6.D.1 Describe and compare data sets using the concepts of median, mean, mode, maximum and minimum, and range.
6.D.2 Construct and interpret stem-and-leaf plots, line plots, and circle graphs.
6.D.3 Use tree diagrams and other models (e.g., lists and tables) to represent possible or actual outcomes of trials. Analyze the outcomes.
6.D.4 Predict the probability of outcomes of simple experiments (e.g., tossing a coin, rolling a die) and test the predictions. Use appropriate ratios between $\,0\,$ and $\,1\,$ to represent the probability of the outcome and associate the probability with the likelihood of the event.