Thanks so much for such Intuitive formulation, there are only few channels like your who focus on raising the intuition level of concept than rather blathering about definitions👌🤗
I think I am most thankful for showing me that parts of my understanding of functional analisis were very incomplete and shaky. And ofcourse helping to fix those parts.
Dear The Bright Side of Mathematics thank you so much for you beautiful series! Nevertheless in my opinion you made a lesser error at time 10:31 because the mean value theorem needs "=" sign. Only at time 10:43 you must apply "
You are absolutely right: You get an equality sign in the mean value theorem. Of course, it is not an error at all but I should have clarified that. Thanks!
I love your videos! Q: Is compactness guaranteed for a closed and bounded set in a finite-dimensional normed vector space because we can do basis isomorphism into R^(dim(X)) and apply the Bolzano-Weierstrass theorem there?
Thank you so much for the amazing videos!!! They are extremely helpful :) I have one question on the first example (a) you gave: it says that "A compact iff A closed + bounded" for finite dimensional normed space, but how does this apply to [0,1] interval in a metric space (R, discrete metric) you discussed in the last video? You explained that this is not compact, but it seems like it is closed, bounded, and finite dimensional.
Hi, thank you so much for your video! If it's not because of these videos I have no idea how many misconceptions I have towards maths! Just for clarification, making sure I am not getting any ideas wrong. Does example (a) implies that for a set of a continuous function on [0,1], we may still find a sequence of such function that doesn't converge according to the definition of ||·||, but does converge if we make further restrictions on the continuous function that we choose?
@@brightsideofmaths achso ja stimmt ich hatte an C^1[0,1] gedacht. C ist die Menge der stetigen Funktionen. C^1 hingegen 1 mal stetig diffbar. Ok dann passt das danke! :)
Hard to believe I've made it through half of this series. Unlike the thick books, The Bright Side shows me there is light and hope.
Thank you very much :)
Thanks so much for such Intuitive formulation, there are only few channels like your who focus on raising the intuition level of concept than rather blathering about definitions👌🤗
I think I am most thankful for showing me that parts of my understanding of functional analisis were very incomplete and shaky. And ofcourse helping to fix those parts.
Dear The Bright Side of Mathematics thank you so much for you beautiful series!
Nevertheless in my opinion you made a lesser error at time 10:31 because the mean value theorem needs "=" sign.
Only at time 10:43 you must apply "
You are absolutely right: You get an equality sign in the mean value theorem. Of course, it is not an error at all but I should have clarified that. Thanks!
Its here sooner than I thought itd be :)
Thanks a lot
Thanks man... Great video.
Mega Video!! Thank you so much!!
I love your videos!
Q: Is compactness guaranteed for a closed and bounded set in a finite-dimensional normed vector space because we can do basis isomorphism into R^(dim(X)) and apply the Bolzano-Weierstrass theorem there?
Exactly! :)
@@brightsideofmaths thanks to you I can now understand such things 🙏
Thank you so much for the amazing videos!!! They are extremely helpful :)
I have one question on the first example (a) you gave: it says that "A compact iff A closed + bounded" for finite dimensional normed space, but how does this apply to [0,1] interval in a metric space (R, discrete metric) you discussed in the last video? You explained that this is not compact, but it seems like it is closed, bounded, and finite dimensional.
Thanks a lot! The answer is simple: we talk about vector spaces here!
@@brightsideofmaths Understood! Thank you very much :)
Hi, thank you so much for your video! If it's not because of these videos I have no idea how many misconceptions I have towards maths! Just for clarification, making sure I am not getting any ideas wrong. Does example (a) implies that for a set of a continuous function on [0,1], we may still find a sequence of such function that doesn't converge according to the definition of ||·||, but does converge if we make further restrictions on the continuous function that we choose?
For example (a) you really should have the definition of equicontinuity in mind. This is reason why we choose the sequence of functions.
At 10:12, I mean in example (b), why do we need the continuity of derivative?
We don't need it but it's easier to formulate by seeing A as a subset of C^1.
Purrfect!!!!
Hege
I love you
What software do you use for the annotations?
Xournal
Sir why arzelo ascoli theorem is not completed?
Completed?
@@brightsideofmaths Sorry, I thought it's incomplete🤗
ich dachte (C[0,1],||•||) mit supremunsnorm ist kein Banachraum
But it is.
@@brightsideofmaths achso ja stimmt ich hatte an C^1[0,1] gedacht. C ist die Menge der stetigen Funktionen. C^1 hingegen 1 mal stetig diffbar. Ok dann passt das danke! :)