Calculating $lim_{nto infty}{frac{frac{n}{1} + frac{n-1}{2} + frac{n-2}{3} + … + frac{2}{n-1} +...
This question already has an answer here:
Compute $lim_{ntoinfty}frac{tfrac{n}{1}+tfrac{n-1}{2}+dots+tfrac{2}{n-1}+tfrac{1}{n}}{ln(n!)}$ [closed]
2 answers
I have tried to use the Stolz theorem and calculate $lim_{nto infty}{frac{a_{n+1}-a_n}{b_{n+1}-b_n}}$ and i have reached $lim_{nto infty}{frac{1 + frac{1}{2} + frac{1}{3} + ... + frac{1}{n-2} + frac{1}{n-1} + frac{1}{n}}{ln (n+1)}}$ but I do not know how to continue. Could someone help me? Thanks in advance.
limits
marked as duplicate by A. Pongrácz, amWhy, RRL, jgon, Davide Giraudo Jan 4 at 21:59
This question has been asked before and already has an answer. If those answers do not fully address your question, please ask a new question.
add a comment |
This question already has an answer here:
Compute $lim_{ntoinfty}frac{tfrac{n}{1}+tfrac{n-1}{2}+dots+tfrac{2}{n-1}+tfrac{1}{n}}{ln(n!)}$ [closed]
2 answers
I have tried to use the Stolz theorem and calculate $lim_{nto infty}{frac{a_{n+1}-a_n}{b_{n+1}-b_n}}$ and i have reached $lim_{nto infty}{frac{1 + frac{1}{2} + frac{1}{3} + ... + frac{1}{n-2} + frac{1}{n-1} + frac{1}{n}}{ln (n+1)}}$ but I do not know how to continue. Could someone help me? Thanks in advance.
limits
marked as duplicate by A. Pongrácz, amWhy, RRL, jgon, Davide Giraudo Jan 4 at 21:59
This question has been asked before and already has an answer. If those answers do not fully address your question, please ask a new question.
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07
add a comment |
This question already has an answer here:
Compute $lim_{ntoinfty}frac{tfrac{n}{1}+tfrac{n-1}{2}+dots+tfrac{2}{n-1}+tfrac{1}{n}}{ln(n!)}$ [closed]
2 answers
I have tried to use the Stolz theorem and calculate $lim_{nto infty}{frac{a_{n+1}-a_n}{b_{n+1}-b_n}}$ and i have reached $lim_{nto infty}{frac{1 + frac{1}{2} + frac{1}{3} + ... + frac{1}{n-2} + frac{1}{n-1} + frac{1}{n}}{ln (n+1)}}$ but I do not know how to continue. Could someone help me? Thanks in advance.
limits
This question already has an answer here:
Compute $lim_{ntoinfty}frac{tfrac{n}{1}+tfrac{n-1}{2}+dots+tfrac{2}{n-1}+tfrac{1}{n}}{ln(n!)}$ [closed]
2 answers
I have tried to use the Stolz theorem and calculate $lim_{nto infty}{frac{a_{n+1}-a_n}{b_{n+1}-b_n}}$ and i have reached $lim_{nto infty}{frac{1 + frac{1}{2} + frac{1}{3} + ... + frac{1}{n-2} + frac{1}{n-1} + frac{1}{n}}{ln (n+1)}}$ but I do not know how to continue. Could someone help me? Thanks in advance.
This question already has an answer here:
Compute $lim_{ntoinfty}frac{tfrac{n}{1}+tfrac{n-1}{2}+dots+tfrac{2}{n-1}+tfrac{1}{n}}{ln(n!)}$ [closed]
2 answers
limits
limits
asked Jan 4 at 11:26
AndarrkorAndarrkor
446
446
marked as duplicate by A. Pongrácz, amWhy, RRL, jgon, Davide Giraudo Jan 4 at 21:59
This question has been asked before and already has an answer. If those answers do not fully address your question, please ask a new question.
marked as duplicate by A. Pongrácz, amWhy, RRL, jgon, Davide Giraudo Jan 4 at 21:59
This question has been asked before and already has an answer. If those answers do not fully address your question, please ask a new question.
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07
add a comment |
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07
add a comment |
1 Answer
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Hint: See the "Rate of divergence" section of the Wikipedia article about the harmonic series, or the definition of the Euler-Mascheroni constant.
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
add a comment |
1 Answer
1
active
oldest
votes
1 Answer
1
active
oldest
votes
active
oldest
votes
active
oldest
votes
Hint: See the "Rate of divergence" section of the Wikipedia article about the harmonic series, or the definition of the Euler-Mascheroni constant.
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
add a comment |
Hint: See the "Rate of divergence" section of the Wikipedia article about the harmonic series, or the definition of the Euler-Mascheroni constant.
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
add a comment |
Hint: See the "Rate of divergence" section of the Wikipedia article about the harmonic series, or the definition of the Euler-Mascheroni constant.
Hint: See the "Rate of divergence" section of the Wikipedia article about the harmonic series, or the definition of the Euler-Mascheroni constant.
answered Jan 4 at 11:32
John HughesJohn Hughes
62.6k24090
62.6k24090
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
add a comment |
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
So i can rewrite the top part as $ln(n) + gamma + frac{1}{2n}$?
– Andarrkor
Jan 4 at 11:42
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
No....but you can approximate it by that (or better still, find upper and lower bounds and use the squeeze lemma).
– John Hughes
Jan 4 at 13:26
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
Ok thanks I will try
– Andarrkor
Jan 4 at 13:31
add a comment |
Where is this problem from? It has been asked a couple of days ago: math.stackexchange.com/questions/3055274/…
– A. Pongrácz
Jan 4 at 12:07