/*! This file is auto-generated */ .wp-block-button__link{color:#fff;background-color:#32373c;border-radius:9999px;box-shadow:none;text-decoration:none;padding:calc(.667em + 2px) calc(1.333em + 2px);font-size:1.125em}.wp-block-file__button{background:#32373c;color:#fff;text-decoration:none} Problem 30 The 2017 World Almanac and Book ... [FREE SOLUTION] | 91Ó°ÊÓ

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The 2017 World Almanac and Book of Facts reported that in \(2016, \mathrm{M\&Ms}\) had sales of approximately \(\$ 3.48\) million and that this accounted for \(12.95 \%\) of the total chocolate candy sales. What was the total amount of chocolate candy sales?

Short Answer

Expert verified
The total amount of chocolate candy sales for 2016 was approximately $26.87 million.

Step by step solution

01

Understand the relation of the given percentage to the total

In this context, 12.95% of the total chocolate candy sales equals $3.48 million. Therefore, total sales will be represented by 100%. Now, following the notion that if 12.95% is $3.48 million, then 100% is the total sales, the question resolves into a simple proportion problem.
02

Setup the proportion

Set up the proportion: \(\frac{12.95}{100} = \frac{3.48}{x}\), where \(x\) is the total sales in millions.
03

Solve the proportion

To find the value of \(x\), cross multiply and divide. This becomes: \(x = \frac{3.48 \times 100}{12.95}\)

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Key Concepts

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

Percentage Calculation
Calculating percentages is a fundamental part of understanding data in various fields, from statistics to finance. In essence, a percentage represents a fraction of 100, making it a useful tool for comparing relative sizes. For instance, if M&Ms represent 12.95% of total chocolate candy sales, we are essentially saying that for every 100 units of chocolate candy sold, 12.95 units are M&Ms.

To solve percentage problems, we often set up a proportion, which in our example compares the percentage of M&Ms sales to the total. The calculation \( \frac{12.95}{100} = \frac{3.48}{x} \) illustrates how we can use proportions to find unknown totals or parts. Understanding how to manipulate and solve these proportions is crucial in any field that involves data analysis or financial calculations. Remember, the key to percentage calculation is recognizing the equivalent relationships and being able to solve for unknowns by setting up the appropriate equivalency.
Statistics in Real World
The application of statistics in the real world extends far beyond the realms of academia. In our daily lives, we constantly encounter data that has been collected, analyzed, and presented statistically. For instance, when a company like M&Ms reports its sales as a percentage of the total market, it is providing valuable information that can influence investor decisions, market strategies, and even consumer behavior.

Statistics provide a framework for making inferences about a population based on samples, such as estimating total sales from a known percentage and a part of the sales. Companies often use statistics to track performance, set targets, and forecast future trends. Policy-makers use statistical data to address societal issues, and healthcare professionals employ it to understand the efficacy of treatments or the spread of diseases. The real power of statistics lies in its ability to turn raw data into actionable insights.
Proportionality in Data Analysis
Proportionality is a foundational concept in data analysis, which deals with the relationship between quantities that increase or decrease at the same rate. In the language of mathematics, if two variables are proportional, as one increases, the other increases by the same factor, and vice versa.

When analyzing data, especially when dealing with percentages and comparing different segments, proportionality allows us to make meaningful comparisons and predictions. Taking our M&Ms sales example, once we establish that their sales are 12.95% of the total, we can infer the size of the total market by solving the proportion \( \frac{12.95}{100} = \frac{3.48}{x} \). This is a practical application of proportionality that can be extended to various fields, from economics to engineering. Whether we're scaling up a recipe or making demographic projections, understanding proportionality is essential for accurate estimation and analysis.

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Most popular questions from this chapter

Investigating Data Suppose a surfer wanted to learn if surfing during a certain time of day made one less likely to be attacked by a shark. Using the Shark Attacks Worldwide data set, which variables could the surfer use in order to answer this question?

Snacks Emmanuel, a student at a Los Angeles high school, kept track of the calorie content of all the snacks he ate for one week. He also took note of whether the snack was mostly "sweet" or "salty." The sweet snacks: \(90,310,500,500,600,90\) The salty snacks: \(150,600,500,550\) Write these data as they might appear in (a) stacked format with codes and (b) unstacked format.

Health Insurance The accompanying table gives the population (in hundred thousands) and number of people not covered by health insurance (in hundred thousands) for the United States. Find the percentage of people not covered by health insurance for each of the given years and describe the trend. (Source: 2017 World Almanac and Book of Facts \()\) $$ \begin{array}{|c|c|c|} \hline \text { Year } & \text { Uninsured } & \text { Total Population } \\ \hline 1990 & 34,719 & 249,778 \\ \hline 2000 & 36,586 & 279,282 \\ \hline 2015 & 29,758 & 316,574 \\ \hline \end{array} $$

Incarceration Rates (Example 7) The table gives the prison population and total population for a sample of states in 2014-15. (Source: The 2017 World Almanac and Book of Facts) $$ \begin{array}{|l|c|c|} \hline \text { State } & \text { Prison Population } & \text { Total Population } \\ \hline \text { California } & 136,088 & 39,144,818 \\ \hline \text { New York } & 52,518 & 19,795,791 \\ \hline \text { Illinois } & 48,278 & 12,859,995 \\ \hline \text { Louisiana } & 38,030 & 4,670,724 \\ \hline \text { Mississippi } & 18,793 & 2,992,333 \\ \hline \end{array} $$ Find the number of people in prison per thousand residents in each state and rank each state from the highest rate (rank 1\()\) to the lowest rank (rank 6). Compare these rankings of rates with the ranks of total numbers of people in prison. Of the states in this table, which state has the highest prison population? Which state has the highest rate of imprisonment? Explain why these two answers are different.

The blog \(N H S\) Choices (February 10, 2014 ) noted that "there has been increasing anecdotal evidence that vitamin C may still be useful as an anticancer medicine if used in high concentrations and given directly into the vein (intravenously)." Explain what it means that there is "increasing anecdotal evidence" that Vitamin C may be a useful anticancer medicine. How does anecdotal evidence contrast with scientific evidence? What kind of conclusions, if any, can be made from anecdotal evidence?

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