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Complete the following table by stating whether the polynomial is a monomial, binomial, or trinomial; then list its terms and state its degree. $$\begin{array}{llll}\text { Polynomial } & \text { Type } & \text { Terms } & \text { Degree } \\ \hline \sqrt{2} x-\sqrt{3} & & &\end{array}$$

Short Answer

Expert verified
The polynomial is a binomial with terms \( \sqrt{2}x \) and \( -\sqrt{3} \) and has a degree of 1.

Step by step solution

01

Identify the Type of Polynomial

The given polynomial is \( \sqrt{2}x - \sqrt{3} \). A polynomial can be classified based on the number of terms: a monomial has one term, a binomial has two terms, and a trinomial has three terms. Here, the expression contains two distinct terms, \( \sqrt{2}x \) and \( -\sqrt{3} \), making it a binomial.
02

List the Terms

Identify the individual terms of the polynomial. In \( \sqrt{2}x - \sqrt{3} \), the terms are \( \sqrt{2}x \) and \( -\sqrt{3} \). These are the distinct parts of the expression separated by addition or subtraction signs.
03

Determine the Degree of Polynomial

The degree of a polynomial is determined by the term with the highest power of the variable, which in this case is \( x \). In the term \( \sqrt{2}x \), \( x \) is raised to the first power, so the degree of this polynomial is 1.

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Key Concepts

These are the key concepts you need to understand to accurately answer the question.

Understanding Binomials
A binomial is a type of polynomial that consists of exactly two terms. Think of it as having two parts in its expression that are joined by a plus or minus sign. For example, in the expression \( \sqrt{2}x - \sqrt{3} \), we have two terms: \( \sqrt{2}x \) and \( -\sqrt{3} \). Hence, this expression is a binomial.
If you break it down further, 'bi-' means two, similar to how a bicycle has two wheels. Therefore, a binomial always has two distinct mathematical parts. Recognizing binomials is crucial when working with polynomials as it guides how you factor and simplify expressions.
A handy example of a binomial is \( x + 2 \), which clearly shows two terms just like the expression we are analyzing.
Terms of a Polynomial
Polynomials are composed of terms. A term is a product of numbers (coefficients) and variables (like \( x \) or \( y \)) raised to a power. In the polynomial \( \sqrt{2}x - \sqrt{3} \), the individual parts, \( \sqrt{2}x \) and \( -\sqrt{3} \), are the terms. These terms are separated by a plus or minus sign.
Each term stands out with its own coefficient and variable combinations. The first term, \( \sqrt{2}x \), has a coefficient of \( \sqrt{2} \) and a variable \( x \), while the second term, \( -\sqrt{3} \), has no variable at all, meaning it's a constant term.
  • Terms can have zero, one, or more variables.
  • They are often combined using simple arithmetic operations.
Understanding and identifying terms in a polynomial is fundamental to solving and simplifying polynomial equations.
Degree of a Polynomial
The degree of a polynomial gives us insight into the polynomial's most significant term regarding its variable powers. In essence, it's determined by the highest exponent of the variable(s) in the polynomial. For the binomial \( \sqrt{2}x - \sqrt{3} \), the term \( \sqrt{2}x \) contains the variable \( x \) raised to the power of 1.
Therefore, the degree of this polynomial is 1. It's important to note that the degree tells us about the polynomial's general behavior and its graph's shape. Polynomials with a higher degree tend to have more complex graphs and behavior.
Here's a simple guide to remember:
  • If a polynomial has a degree of 0, it’s a constant polynomial.
  • A degree of 1 indicates a linear polynomial.
  • A degree of 2 suggests a quadratic polynomial.
This basic understanding helps in classifying and predicting the behavior of polynomial expressions efficiently.

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