-1
0
1
2
To find the largest real value of \(a\) for which the equation \(|x+a|+|x-1|=2\) has an infinite number of solutions for \(x\), we need to analyze the possible cases when the absolute value expressions change their signs.
Case 1: When both expressions are positive:
\(x+a+x-1=2\)
\(2x+a-1=2\)
\(2x+a=3\)
Case 2: When the first expression is positive and the second is negative:
\(x+a-(x-1)=2\)
\(x+a-x+1=2\)
\(a+1=2\)
\(a=1\)
Case 3: When both expressions are negative:
\(-(x+a)-(x-1)=2\)
\(-x-a-x+1=2\)
\(-2x-a+1=2\)
\(-2x-a=1\)
Case4: When the first expression is negative and the second is positive:
\(-(x+a)+(x-1)=2\)
\(-x-a+x-1=2\)
\(-a-1=2\)
\(a=-3\)
Now, let's analyze the critical points:
1. When \(a>1\), we have the solution \(a=3\), but it does not satisfy the condition that both expressions should be positive.
2. When \(a=1\), we have the solution \(a=1\), which satisfies the condition for both expressions to be positive.
3. When \(a<1\), we have the solution \(a=-3\), but it does not satisfy the condition that both expressions should be positive.
Hence, the largest real value of "a" for which the equation has an infinite number of solutions is \(a = 1\).
So, the correct option is (C): \(1\)
It is stated in the question that there are an endless number of solutions to the equation \(|x+a|+|x−1|=2\) for any value of x. When x in \(|x+a|\) and x in \(|x-1|\) cancel out, this is feasible.
Case I:
\(x + a < 0, x - 1 ≥ 0\)
\(- a - x + x - 1 = 2\)
\(a = -3\)
Case II:
\(x + a ≥ 0\) and \(x - 1 < 0\)
\(x + a - x + 1 = 2\)
\(a = 1\)
A has a maximum value of 1.
For any natural number $k$, let $a_k = 3^k$. The smallest natural number $m$ for which \[ (a_1)^1 \times (a_2)^2 \times \dots \times (a_{20})^{20} \;<\; a_{21} \times a_{22} \times \dots \times a_{20+m} \] is:
| LIST I | LIST II | ||
| A. | The solution set of the inequality \(-5x > 3, x\in R\), is | I. | \([\frac{20}{7},∞)\) |
| B. | The solution set of the inequality is, \(\frac{-7x}{4} ≤ -5, x\in R\) is, | II. | \([\frac{4}{7},∞)\) |
| C. | The solution set of the inequality \(7x-4≥0, x\in R\) is, | III. | \((-∞,\frac{7}{5})\) |
| D. | The solution set of the inequality \(9x-4 < 4x+3, x\in R\) is, | IV. | \((-∞,-\frac{3}{5})\) |
The given sentence is missing in the paragraph below. Decide where it best fits among the options 1, 2, 3, or 4 indicated in the paragraph.
Sentence: While taste is related to judgment, with thinkers at the time often writing, for example, about “judgments of taste” or using the two terms interchangeably, taste retains a vital link to pleasure, embodiment, and personal specificity that is too often elided in post-Kantian ideas about judgment—a link that Arendt herself was working to restore.
Paragraph: \(\underline{(1)}\) Denneny focused on taste rather than judgment in order to highlight what he believed was a crucial but neglected historical change. \(\underline{(2)}\) Over the course of the seventeenth century and early eighteenth century, across Western Europe, the word taste took on a new extension of meaning, no longer referring specifically to gustatory sensation and the delights of the palate but becoming, for a time, one of the central categories for aesthetic—and ethical—thinking. \(\underline{(3)}\) Tracing the history of taste in Spanish, French, and British aesthetic theory, as Denneny did, also provides a means to recover the compelling and relevant writing of a set of thinkers who have been largely neglected by professional philosophy. \(\underline{(4)}\)