Linear Algebra 48 | Laplace Expansion

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This is my video series about Linear Algebra. I hope that it will help everyone who wants to learn about it.
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(This explanation fits to lectures for students in their first year of study: Mathematics for physicists, Mathematics for the natural science, Mathematics for engineers and so on)

[@aftermath4096]

I've never seen the Leibniz and Laplace expansions being explained so simply. In particular, their relationship becomes almost trivial once you see this.

[@brightsideofmaths]

Wow nice! And thanks for your support!

[@voidbye]

Your channel is a true life saver for physics students

[@brightsideofmaths]

Thank you very much! And thanks for the support!

[@xzreai1802]

great video, very well explained! also love the clear handwriting and animation - thanks a ton!

[@brightsideofmaths]

Glad you enjoyed it! :) And thank you for your support!

[@tyronemiguelarollado1150]

liking for the algorithm, continue the great work!

[@brightsideofmaths]

Thanks for the support :)

[@James-sd6lj]

saving my grade fr

[@dsllvv]

Thank you 💜

[@gwfriends4734]

Very good explanation 💜

[@brightsideofmaths]

Glad you think so!

[@samirmansour6174]

thank you

[@brightsideofmaths]

Thank you for your support :)

[@flov74]

Is it planned you (someday) generalise all these linear algebraic properties in (IR)^n to any commutative field F^n or even to integral domains, commutative rings R^n ?

[@brightsideofmaths]

Yes :)