Consider the sequence $a_n = \frac{1}{n^p}$. We can use the limit comparison test to show that the sequence only converges if $p = 1$. If $p > 1$, then $\lim_{n \to \infty} \frac{a_n}{\frac{1}{n}} = \lim_{n \to \infty} n^{p-1} = \infty$, which means that the sequence diverges. If $p < 1$, then $\lim_{n \to \infty} \frac{a_n}{\frac{1}{n}} = \lim_{n \to \infty} n^{p-1} = 0$, which means that the sequence converges. Therefore, the sequence only converges if $p = 1$. **

The infinite sum that converges to the n-th root of x is given by the formula: 1 + (1/n) * (x^(1/n) - 1) + (1/n^2) * (x^(2/n) - 1) + (1/n^3) * (x^(3/n) - 1) + ... This infinite sum converges to the n-th root of x as the number of terms approaches infinity. It is a representation of the limit as n approaches infinity of the sum of the n-th roots of x, each raised to the power of 1/n. **

To prove that the n-th root of x converges to 1 as n approaches infinity, you can use the limit definition of convergence. Specifically, you can show that the limit as n approaches infinity of the n-th root of x is equal to 1. This can be done by using the fact that as n becomes very large, the n-th root of x will get closer and closer to 1. You can also use the properties of limits and the definition of convergence to formally prove this result. **

Convergence criteria can help determine if a series converges, but they do not provide a definitive answer in all cases. In the case of the series 099991, convergence criteria would need to be applied to analyze its behavior. Depending on the specific criteria used, it may be possible to determine if the series converges or diverges. However, without knowing the specific criteria being applied, it is not possible to definitively say whether 099991 converges. **

To show that a series converges, we can use various convergence tests such as the comparison test, ratio test, root test, or the integral test. These tests help us determine whether the series converges or diverges based on the behavior of the terms in the series. By applying one of these tests and showing that the series satisfies the conditions for convergence, we can demonstrate that the series converges. **

If a sequence converges to a limit L, then for any positive number ε, there exists a positive integer N such that for all n greater than or equal to N, the terms of the sequence are within ε of L. Now, consider the difference sequence, which is defined as the absolute value of the difference between consecutive terms of the original sequence. As the original sequence converges to L, the difference between consecutive terms will approach zero as n becomes large. Therefore, the difference sequence will converge to zero, making it a null sequence. **

To show that a sequence converges, you can use the definition of convergence which states that for any positive real number ε, there exists a positive integer N such that for all n greater than N, the terms of the sequence are within ε of the limit. You can also use convergence tests such as the limit comparison test, ratio test, or root test for series to determine convergence. Additionally, you can check if the sequence is monotonic and bounded, as a monotonic and bounded sequence will converge by the Monotone Convergence Theorem. **

To find out what a series converges to, you can use various convergence tests such as the ratio test, the root test, or the comparison test. These tests help determine if a series converges or diverges, and in the case of convergence, they can provide an estimate of the limit to which the series converges. Additionally, you can also use known series or sequences with similar properties to compare and determine the convergence of a given series. Overall, the process of finding out what a series converges to involves applying convergence tests and comparing with known series to determine the limit of convergence. **