Let \( \mathrm{N}=\{1,2,3,4, \ldots\} \) be the set of netural numbers and \( S=\{1,4,9,16, \ldots\} \) be the set of squares of the natural numbers. Then \( \mathrm{N} \sim \mathrm{S} \), since we have the one-to-one correspondence \( 1 \leftrightarrow 1,2 \leftrightarrow 4,3 \leftrightarrow 9,4 \leftrightarrow 16, \ldots n \leftrightarrow n^{2} \). (This example is interesting, since it shows that an infinite set can be equivalent to a proper subset of itsell Show thet each of the following pairs of sets are equivalent by carefully describing a one-fo-one correspondence befween the sets. Complete parts (a) through (c) belo (a) The whole numbers and netural numbers, \( W=\{0,1,2,3, \ldots\} \) and \( \mathrm{N}=\{1,2,3,4, \ldots\} \) Which of the following describes a one-to-one correspondence between the two sets? A. For each element in W , there is an element in N that is double that element. B. For each element in W , there is an element in N that is 2 greater than that element. C. For each element in W , there is an element in N that is 1 greater than that element. D. For each element in W , there is an element in N that is 1 greater than double that element.
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To establish a one-to-one correspondence between the whole numbers \( W \) and the natural numbers \( N \), we can use option C. For each element \( w \in W \), we can define the pairing by the function \( f(w) = w + 1 \). This means: - When \( w = 0 \), \( f(0) = 1 \) - When \( w = 1 \), \( f(1) = 2 \) - When \( w = 2 \), \( f(2) = 3 \) - When \( w = 3 \), \( f(3) = 4 \) And so on. Each whole number corresponds uniquely to a natural number, thus proving they are equivalent. Now, for the fun part! Infinity surprises us in many ways! Just like the time-traveling DeLorean that takes us back to the future, our sets are on a journey that reveals they can match up neatly. The mapping shows how numbers can live together harmoniously—one set being just a slightly modern twist on the other! Also, did you know that Hilbert’s Hotel, a thought experiment by mathematician David Hilbert, illustrates this idea of infinite sets? In this imaginary hotel, even if it’s fully booked, it can still accommodate new guests simply by moving current guests to the next room—showing how infinite sets can always make more room for something new! Talk about infinite hospitality!
