https://api.agilixbuzz.com/Resz/~Ey6YBAAAAAQuMTRzdauTtA.f73ecUiY1RrHOg6WCBh4bA/19809088,B84/Assets/assessmentimages/45815.jpg https://api.agilixbuzz.com/Resz/~Ey6YBAAAAAQuMTRzdauTtA.f73ecUiY1RrHOg6WCBh4bA/19809088,B84/Assets/assessmentimages/45715.jpg https://api.agilixbuzz.com/Resz/~Ey6YBAAAAAQuMTRzdauTtA.f73ecUiY1RrHOg6WCBh4bA/19809088,B84/Assets/assessmentimages/45915.jpg https://api.agilixbuzz.com/Resz/~Ey6YBAAAAAQuMTRzdauTtA.f73ecUiY1RrHOg6WCBh4bA/19809088,B84/Assets/assessmentimages/46013.jpg
which series will converge?
@Michele_Laino
hint: the series \[\huge \sum {k \cdot {n^2},\quad k \in \mathbb{R}} \] diverges
also the series \[\huge \sum {a \cdot n,\quad a \in \mathbb{R}} \]
so i would say the second one
it is very easy to check such statements
the second one, is divergent. Here is why: \[\Large \sum {\frac{1}{2} \cdot n = \frac{1}{2}\left( {1 + 2 + 3 + ...} \right) = + \infty } \]
would it be the third one? I am kinda confused
yes! The series: \[\huge \sum\limits_1^{ + \infty } {\frac{1}{{{n^2}}}} \] is convergent
no, sorry, I meant this: https://api.agilixbuzz.com/Resz/~Ey6YBAAAAAQuMTRzdauTtA.f73ecUiY1RrHOg6WCBh4bA/19809088,B84/Assets/assessmentimages/45715.jpg
ok thats what i meant by the second one
yes!
Thank you again!
:)
Join our real-time social learning platform and learn together with your friends!