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Poyen School |
| Number and Operations |
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Equivalent representations of numbers
The learner will be able to recognize equivalent representations for the same whole number and generate them by composing and decomposing numbers. Example: 1076 = 1000 + 70 + 6; 500 + 500 + 25 + 25 + 25 + 1; 250 + 250 + 250 + 250 + 75 + 1; etc.
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Place value: represent & compare
The learner will be able to use the place-value structure of the base ten number system and be able to represent and compare whole numbers to millions ( using models, illustrations, symbols, expanded notation, and problem solving) Example: 1, 246, 477 ____ 1, 244.
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Compare & order numbers
The learner will be able to use mathematical language and symbols to compare and order any whole numbers with and without appropriate technology (<,>,=).
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Write fractions
The learner will be able to write a fraction to name part of a whole, part of a set, a location on a number line, and the division of whole numbers, using models up to 12/12. 2004 Arkansas Mathematics Frameworks for examples.
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Size of whole determines fraction size
The learner will be able to utilize models, benchmarks, and equivalent forms to recognize that size of teh whole determines the size of the fraction.
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Represent & compare decimals
The learner will be able to use the place value structure of the base ten number system and be able to represent and compare decimals to hundredths (using models, illustrations, symbols, expanded notation, and problem solving.) Example: 3.87 ____ 3.78.
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Decimal/fraction equivalents
The learner will be able to write an equivalent decimal for a given fraction relating to money. Example: 1/10 = $0.10, 1/4 = $0.25.
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Equivalent fractions
The learner will be able to write a fraction that is equivalent to a given fraction with the use of models. Example: 1/3 = 2/6 = 4/12.
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Associative & zero prop. of X
The learner will be able to develop an understanding of the associative and zero properties of multiplication using objects.
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Apply number theory
The learner will be able to apply number theory: 1. Determine if any number is even or odd. 2. Use the terms multiple, factor, and divisible by in an appropriate context. 3. Generate and use divisibility rules for 2, 5, and 10. 4. Demonstrate various multiplication and division relationships.
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Math symbols
The learner will be able to use conventional mathematical symbols to write equations for contextual problems involving multiplication. See Appendix 2004 Arkansas Mathematics Frameworks for examples.
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Division: represent & explain
The learner will be able to represent and explain division as measurement and partitive division including equal groups, releated rates, price, rectangular arrays (area model), combinations and multiplicative comparison. See Appendix 2004 Arkansas Mathematics Frameworks for more details. Example: 1. Translate contextual situations involving division into conventional mathematical symbols. 2. Explain how a remainder may impact an answer in a real world situation.
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Computational fluency: multi-digit + &am
The learner will be able to demonstrate, with and without appropriate technology, computational fluency in multi-digit addition and subtraction in contextual problems.
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Fluency:combinations: X & divide
The learner will be able to demonstate fluency with combinations for multiplication and division facts ( 12 X 12) and use these combinations to mentally compute related problems (30 X 50).
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Fluency: X & divide: contextual prob
The learner will be able to attain, with and without appropriate technology, computational fluency in multiplication and division using contextual problems using 1. two digit by two digit multiplication (larger numbers with technology) 2. up to three digit by two digit division (larger numbers with technology) 3. strategies for multiplication and dividing numbers 4. performance of operations in more than one way. 5. Estimation of products and quotients in appropriate situations 6. relationships between operations.
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Solve problems: multiple methods
The learner will be able to solve simple problems using operations involving addition, subtraction, and multiplication using a variety of methods and tools (e.g., objects, mental computation, paper and pencil, and with and without appropriate technology).
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Estimation strategies
The learner will be able to use estimation strategies to solve problems and judge the reasonableness of the answer.
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| Algebraic Concepts |
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Mulitples of 10, 100, 1000
The learner will be able to identify a number that is more or less than any whole number using multiples of 10, 100, and/or 1000. Example: 100 more than 4987 is 5087.
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Numeric & geometric patterns
The learner will be able to use repeating and growing numeric and geometric patterns to make predictions and solve problems.
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Find rule for a pattern
The learner will be able to determine the relationship between sets of numbers by selecting the rule. (2 step rule in words).
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Number sentences: solve contextual
The learner will be able to select and/or write number sentences (equations) to find the unknown in problem-solving contexts involving two digit by one digit division using appropriate labels.
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Equations and inequalities
The learner will be able to express mathematical relationships using simple equations and inequalities (>,<,=, not equal) See 2004 Arkansas Mathematics Frameworks for symbol for not equal. Example: 4 X 5 ______ 8 X 2 + 3.
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Variable to represent unknown
The learner will be able to use a variable to represent and unknown quantity in a number sentence involving contextual situations and find the value. Example: Susie bought 48 pencils. If the pencils came in packages of 12, how many packages of pencils did she buy? P = 48 divided by 12.
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Chart/table to organize information
The learner will be able to create a chart or table to organize given information and to understand relationships and explain the results. Example: Troy must read independently for 2 hours a week. If Troy reads 20 minutes a day, how long will it take him to read a total of two hours.
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Proportional relationships
The learner will be able to identify, describe and generalize relationships in which quantities change proportionally. Example: If a car travels at a rate of 50 mph, how far will it travel in three hours? 1 hour = 50 miles; 2 hours = 100 miles; 3 hours = 150 miles.
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| Geometry |
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Classify 3-D solids
The learner will be able to identify, describe and classify 3 - D solids by properties including the number of vertices, edges, and shapes of faces using models.
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Regular & irregular polygons
The learner will be able to identify regular and irregular polygons including octagons.
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One dimensional figures
The learner will be able to identify, draw, and describe a line, line segment, a ray, an angle, intersecting, perpendicular and parallel lines.
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Intersecting, parallel, perpendicular
The learner will be able to identify and describe intersecting, perpendicular, and parallel lines in problem solving contexts.
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Classify angles relative to 90 degrees
The learner will be able to classify angles relative to 90 degrees as more than, less than, or equal to.
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Transformations
The learner will be able to determine the result of a transformation of a two dimensional figure as a slide (translation), flip (reflection), or turn (rotation) and justify the answer.
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Coordinate geometry
The learner will be able to locate and identify points on a coordinate grid and name the ordered pair (quadrant one only) using common language and geometric vocabulary ( horizontal and vertical).
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3 - D model with cubes
The learner will be able to construct a three dimensional model composed of cubes when given an illustration.
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Combining & subdividing models
The learner will be able to create new figures by combining and subdividing models of existing figures in multiple ways and record the results in a table. See 2004 Arkansas Mathematics Frameworks for a pictorial example.
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| Measurement |
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60 sec/1 minute
The learner will be able to recognize that 60 seconds equals 1 minute.
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Temperature: contextual problems
The learner will be able to distinguish the temperature in contextual problems using the Fahrenheit scale on a thermometer.
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Relationships: units of measurement
The learner will be able to use the relationships among units of measurement. LENGHT: 12 in = 1 ft. ; 3 ft. = 1 yd. ; 36 in = 1 yd. ; 100 cm = 1 m CAPACITY: 2 cups = 1 pint; 2 pints = 1 quart; 4 quarts = 1 gallon; WEIGHT: 16 ounces = 1 lb.
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Conversion table: units of measurement
The learner will be able to create and complete a conversion table to show relationships between units of measurement in the same system.
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Calendar: elapsed time
The learner will be able to using a calendar to determine elapsed time from month to month.
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Convert minutes/hours
The learner will be able to solve problems involving conversions between minutes and hours.
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State time multiple ways
The learner will be able to restate the time in muliple ways given an analog clock to the nearest 1 minute.
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Elapsed time
The learner will be able to determine elapsed time in contextual situations to five minute intervals with beginning time unknown. Example: Mary watch a movie for one hour and 15 minutes. The movie ended at 8: 15. When did the movie begin.
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Apply money concepts
The learner will be able to apply money concepts in contextual situations. Example: 1. Determine the better buy. 2. Determine the change back with the least amount of currency. 3. Compare money.
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Read temperatures
The learner will be able to read temperatures on Fahrenheit and Celsius scales.
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Measurement tools
The learner will be able to use appropriate customary and metric measurement tools for lenght, capacity, and mass.
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Measurement: Customary & metric
The learner will be able to estimate and measure length, capacity/volume and mass using appropriate customary and metric units. LENGTH: 1/2 inch, 1 cm PERIMETER: inches, feet, centimeters, meters AREA: square inches, square feet, square centimeters, square meters WEIGHT: Pounds/ounces MASS: Kilograms/ grams CAPACITY: cups, pints, quarts, gallons VOLUME: liters.
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Perimeter of rectangle
The learner will be able to use strategies for finding the perimeter of a rectangle.
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Area of rectangle
The learner will be able to use strategies for finding the area of a rectangle.
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Volume: rectangular prisms & cubes
The learner will be able to use strategies to find the volume (cubic units) of rectangular prisms and cubes.
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| Data Analysis and Probability |
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Data collection plan
The learner will be able to create a data collection plan after being given a topic and collect, organize, display, describe, and interpret simple data using frequency tables or line plots, pictographs, and bar graphs.
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Represent & interpret data
The learner will be able to represent and interpret data using pictographs, bar graphs, and line graphs in which symbols or intervals are greater than one.
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Match data & graph
The learner will be able to match a set of data with a graphical representation of the data. |