Verified Answer :

  • Break down the expression \(1 + \frac{z}{3} + 2w\) into terms: \(1\), \(\frac{z}{3}\), and \(2w\).
  • Identify \(\frac{z}{3}\) as the term representing a quotient.
  • State the dividend as \(z\) and the divisor as \(3\).
  • The quotient is \(\frac{z}{3}\) with dividend \(z\) and divisor \(3\). \(\boxed{\frac{z}{3}, z, 3}\)

Explanation

  1. Analyzing the Expression and Identifying the Quotient

The expression given is \(1 + \frac{z}{3} + 2w\). To analyze it, we break the expression down into its individual terms: \(1\), \(\frac{z}{3}\), and \(2w\). A term is considered a quotient when it represents the division of one quantity by another. Looking at the three terms, we identify \(\frac{z}{3}\) as a quotient because it involves the division of \(z\) by \(3\). The other terms, \(1\) and \(2w\), represent a constant and a product, respectively.

  1. Describing the Parts of the Quotient

In the quotient \(\frac{z}{3}\), the parts of the division are clearly defined. The dividend is the quantity being divided, which is the numerator, \(z\). The divisor is the quantity by which we are dividing, which is the denominator, \(3\). Thus, the quotient is \(\frac{z}{3}\), where the dividend is \(z\) and the divisor is \(3\).

Examples

Understanding how to break down algebraic expressions is essential for simplifying equations and solving for unknown variables. For example, in a physics problem where you might calculate speed as \(\frac{d}{t}\), recognizing \(d\) as the dividend (distance) and \(t\) as the divisor (time) allows you to correctly manipulate the equation to solve for either variable. This fundamental skill helps in building complex mathematical models in fields like engineering, economics, and science.