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The Arithmetic Reasoning section of the ASVAB test focuses on word problems and delivers mathematical questions and equations in a format that must be synthesized. These may not only be simple questions involving basic multiplication, but may also be as complex as completing a physics equation listed in paragraph or word-block format. When deconstructing these word problems, pay close attention to all aspects of the question, including all numbers mentioned, buzzwords, and the format of the paragraph itself. The following pointers will give you a more in-depth analysis of each component of word problems.
Mathematical reasoning requires you to focus on all aspects of the word problem, with particular attention to buzzwords indicating the action to take: multiplication, division, etc. Seek out important phrases, such as “difference,” “minus,” and “take away” for subtraction, or “product,” “times,” and “double” for multiplication. Before tackling the question as a whole, look for such buzzwords and identify what process the word problem requires. From there, you can continue to solve the overall equation
Pay close attention to all numbers and figures mentioned within the body of the paragraph. Identify these numbers, set them aside, and identify which of the numbers are relevant and which of the numbers are tossed in for the purpose of throwing you off or misleading you. While paying attention to the numbers, also pay attention to the order. Identifying a 7 and a 9 as the two elements of a word problem is only effective if you are able to correctly identify the proper sequence of the numbers. 9-7 and 7-9 yield two very different results and may be the difference between passing and failing a test.
The format of a paragraph is also a key component of mathematical reasoning. A physics equation, for instance, will be formatted far differently than a simple algebraic equation; a physics word problem will likely involve a vehicle of some type (car, train, plane, etc.), while a simple addition equation may involve a myriad of different situations in many different contexts. To determine the nature of the equation, you must first identify the format and context of the paragraph. From there, you can combine the buzzwords and numbers to form a completed, simplified equation.
When preparing for the Arithmetic Reasoning section of the ASVAB test, always remember to scan the question first, identify all necessary parts, and discard the rest. Because word problems are lengthier than the actual equation or function, there will likely be a significant portion of text that is not relevant to solving the equation, but is used as filler to throw you off track. When dealing with these problems, identify all necessary information, formulate a workable equation, and solve the equation. As always, if you are uncertain about a specific question or section, feel free to move ahead to a section you are more comfortable with, and then circle around to the more difficult questions. While taking the test, exercise patience and reasoning to achieve a higher score.
While preparing for this test, be sure you have a basic understanding of the following math ideas. If something listed here still stumps you, seek out further explanation and practice.
There are three basic kinds of numbers:
Whole numbers: The set of whole numbers (with no fractional part) from 0 to infinity:
Counting numbers: The same as the whole numbers, except this set does not include 0, because 0 can’t be counted:
Integers: The set of all positive counting numbers, their opposites which are negative, and 0. Positive integers are greater than 0, and negative integers are less than 0.
When using the four operations with numbers we need to know how to talk about the result:
Addition: Adding two or more numbers results in a sum.
Subtraction: Subtracting two numbers results in a difference.
Multiplication: Multiplying two numbers results in a product.
Division: Dividing two numbers results in a quotient.
Prime numbers: Any number which is divisible only by itself and one: Since the number 1 is only divisible by 1, it is not considered a prime number.
Even numbers: Any number that when divided by 2 leaves no remainder; it is exactly divisible by 2:
Odd numbers: Any number that when divided by 2 leaves a remainder of 1:
Factor: A factor is an integer which evenly divides another integer and when multiplied by itself or other factor(s), will equal this bigger number: 2 is a factor of 10, and when multiplied by 5 equals 10
Multiple: The product of two or more integers: 10 is a multiple of 2 because 5 times 2 equals 10.
Consecutive Numbers: These are sets of numbers that increment by exactly one member in their set. For example these are five consecutive integers: and these are five consecutive even numbers:
Fractions: Part of a whole with a numerator on the top representing the number of parts, the horizontal bar to indicate part of a whole is represented, and the whole number of parts in the denominator. For example: If Jimmy ate 3 out of 5 apples in a bag, he ate of the apples.
Mixed Number: A fraction that contains a whole number and fractional part. If Johnny ate one whole bag containing five apples and also ate 3 out of 5 apples in a second bag, the fraction this represents would be mixed:
To convert an improper fraction to a mixed fraction, divide the denominator into the numerator to find the whole number part. The remainder from this division becomes the numerator:
There are three properties of numbers we must be aware of when dealing with the four mathematical operations: Associative Property, Commutative Property, and Distributive Property. These form the basis for many problem-solving methods and procedures.
The short way to describe this property is: distribute the number outside the parenthesis over all the numbers inside it. This distributive property also means that you can factor some things out of an expression leaving the larger part inside the parentheses, and the smaller outside of them. For example:
With the distributive property we can factor out 6x to get:
Adding two even integers always produces an even integer. Adding two odd integers always produces an even integer. Adding an odd number with an even number always produces an odd number:
The same property holds true with subtraction:
(even) (even) (odd)
Multiplying two even integers together always produces an even integer.
Multiplying an even number by an odd number always produces an even number.
Multiplying an odd number by an odd number always produces an odd number.
If the number is evenly divisible by its divisor, the even/odd property is the same as with multiplication. Otherwise there is a remainder, the quotient is a fraction, and so is neither even nor odd.
Subtracting a negative number is the same as adding a positive number:
A negative number plus a negative number always produces a negative number:
A positive number added to a negative number produces a positive number, if the positive number is bigger than the absolute value of the (negative number), otherwise the result is negative:
A positive integer times a positive integer always produces a positive integer.
A negative integer times a negative integer always produces a positive integer.
But a positive integer times a negative integer always produces a negative integer.
With division, the property for signs is the same as with multiplication, although, note that if the integer is not evenly divisible by its divisor, the result is a fraction, not an integer.
The absolute value of a number is best thought of as its distance from 0 on the number line. We sometimes use this symbol when working with negative integers, placing it between two of these vertical line symbols:
For example, the number 9 is a positive number equal to the absolute value of : . When the absolute value is used with algebraic equations, this means there will be two answers.
For example, with , x can be 14 or 4.
Multiplication is repeated addition: it is adding the number being multiplied a certain number of times. For example with the expression , we add 2 four times to itself like so:
which you can see is equal to the product we memorized in our grade school multiplication tables.
Division is equal sharing of some number of things. In the simplest way it can be thought of as sharing equally a certain number of things, with a smaller number of other things:
For example if we have four apples, and we want to share them among 2 people, we divide 4 by 2:
Each person gets two apples.
All integers can be expressed as a product of the number one and itself. . All integers are evenly divisible by itself and 1. But only a prime number is evenly divisible only by itself and one; there are no other numbers that evenly divide a prime number.
The first 10 prime numbers are: 2, 3, 5, 7, 11, 13, 17, 19, 23, and 29.
An integer that is not a prime number is called a composite number, and it is evenly divisible by other integers (not just one and itself).
For example, the number 12 is evenly divisible by 1, 2, 3, 4, 6, and 12.
The factors of an integer are all the numbers that evenly divide that integer. These numbers multiplied together in the right combination result in a product equal to this number. The number 12 has 6 factors that evenly divide it. So 12 can be expressed in the following ways:
Multiples
A multiple of an integer is a product of two or more integers.The number 12 is a multiple of all six of its factors, because those factors multiplied together in the right combination produce the number 12.
This term refers to the quantity left over after dividing one number by another: with , five divides 16 three whole times, leaving a remainder of 1.
Divisibility rules help us to identify what integers exactly divide a given number. Put another way, divisibility rules help us to find all the factors of a given number. Divisibility rules for numbers 2 through 10 are:
2 - All even numbers are evenly divisible by 2: A number is even if its last digit is evenly divisible by 2.
3 - A number is divisible by three if: the sum of its digits is divisible by three. Example: 12 contains the digits 1 and 2, and 2 +1 =3. Three is evenly divisible by three.
4 - If the last two digits of a number are evenly divisible by 4, the number is divisible by 4.
5 - If the last digit is 0, or if the last digit is 5, the number is divisible by 5.
6 - If the integer is divisible by 2 and 3, it must be evenly divisible by 6.
7 - Multiply the last digit (the digit furthest to the right) by 2, then subtract this product from the number to the left of the last digit. If the result is 0 or divisible 7 the original number is divisible by 7. If the result is not 0, and it is still not clear, this test can be repeated. For example with 343, twice the last digit is 6. Subtract this from 34 to get 28,which we can quickly see is divisible by 7.
8 - If the last three digits are divisible by 8, the number is evenly divisible by 8.
9 - Similar to the rule for 3: if the sum of the digits in a number are evenly divisible by 9, the number is evenly divisible by 9. Example: with 81 the sum of the digits is 9, which is evenly divisible by 9.
10 - The last digit ends in 0
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