Problem 17
Question
Write the equation in words. $$ \pm \sqrt{16}=\pm 4 $$
Step-by-Step Solution
Verified Answer
The translation of the equation \[ \pm \sqrt{16}=\pm 4 \] to words is 'The positive or negative square root of sixteen is equal to positive or negative four'.
1Step 1: Identify the Mathematical Symbols
Look at the equation and identify the different symbols used. Here we have a square root symbol, a plus/minus symbol, an equality symbol, and numbers.
2Step 2: Translate the Symbols
Each symbol corresponds to a certain word or phrase. '+/-' translates to 'the positive or negative', '√' refers to 'the square root of', and '=' translates to 'is equal to'.
3Step 3: Write the Equation in words
The mathematical equation \[ \pm \sqrt{16}=\pm 4 \] translates to 'The positive or negative square root of sixteen is equal to positive or negative four'.
Key Concepts
Mathematical SymbolsSquare RootAlgebraic Expressions
Mathematical Symbols
Understanding mathematical symbols is crucial in the language of mathematics. Each symbol represents a unique operation or idea and helps to streamline complex relationships into a more manageable form. In the exercise given, various symbols are used, including plus/minus (±), which denotes both the positive and negative aspect of a number, and equal to (=), which indicates that two expressions hold the same value. Additionally, the square root symbol ( √ ) opens up the notion of finding a value that, when multiplied by itself, gives the original number under the radical symbol.
When translating mathematical symbols into words, it's helpful to introduce words or phrases that distinctly represent each symbol. This makes the abstract symbols concrete, aiding in understanding and communication of the concept. Knowing these symbols and their verbal counterparts allows for an accurate translation of the algebraic expression into a spoken or written sentence.
When translating mathematical symbols into words, it's helpful to introduce words or phrases that distinctly represent each symbol. This makes the abstract symbols concrete, aiding in understanding and communication of the concept. Knowing these symbols and their verbal counterparts allows for an accurate translation of the algebraic expression into a spoken or written sentence.
Square Root
The square root of a number is a fundamental concept in algebra that involves finding a value that, when squared, returns the original number. The square root of 16, as seen in our exercise, is represented by the symbol \( \sqrt{16} \), which asks: What number times itself equals 16? The answer is 4, but since numbers can have both positive and negative square roots, we use the plus/minus symbol (±) to reflect both possibilities.
In simpler terms, if you picture a square with an area of 16 square units, the length of one side of the square (the root) would be 4 units. Recognizing that a square can only have a positive area, the square root signifies a positive quantity, even though the number itself can have a negative counterpart. This understanding aids students in visualizing the concept beyond the mathematical notation.
In simpler terms, if you picture a square with an area of 16 square units, the length of one side of the square (the root) would be 4 units. Recognizing that a square can only have a positive area, the square root signifies a positive quantity, even though the number itself can have a negative counterpart. This understanding aids students in visualizing the concept beyond the mathematical notation.
Algebraic Expressions
An algebraic expression is a combination of numbers, variables, and mathematical operations (like addition, subtraction, multiplication, and division) that represents a specific value or set of values. In the context of our original exercise, the algebraic expression \( \pm \sqrt{16} \) conveys the idea that there are two solutions: \( +4 \) and \( -4 \) that square to give 16. The expression captures the relationship between the square root of the number and its square, expressed in terms of both its positive and negative aspects. When working with algebraic expressions, it is important to understand the underlying relationships and operations represented by the symbols.
Algebraic expressions are like phrases in a language; they communicate a thought or value. When students learn to interpret these expressions, they advance their ability to solve complex problems and develop a deeper understanding of algebra as a whole. By mastering both the symbolic and verbal translations of these expressions, learners can bridge the gap between abstract mathematical concepts and concrete understanding.
Algebraic expressions are like phrases in a language; they communicate a thought or value. When students learn to interpret these expressions, they advance their ability to solve complex problems and develop a deeper understanding of algebra as a whole. By mastering both the symbolic and verbal translations of these expressions, learners can bridge the gap between abstract mathematical concepts and concrete understanding.
Other exercises in this chapter
Problem 17
Determine whether the radical expression is in simplest form. Explain. $$ \frac{19}{\sqrt{9}} $$
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Use the falling object model, \(h=-16 t^{2}+s .\) Given the initial height \(s\), find the time it would take for the object to reach the ground, disregarding a
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Determine whether the ordered pair is a solution of the inequality. $$ y
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Decide whether the parabola opens up or down. $$ y=5 x+6 x^{2}-1 $$
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