most citedMethodus inveniendi lineas curvas maximi minimive proprietate gaudentes, sive solutio problematis isoperimetrici lattissimo sensu accepti

41 citations · 62 across the 8 of their papers we have counts for

collaborators

8 papers

math.HO2013★ 41 cited

Methodus inveniendi lineas curvas maximi minimive proprietate gaudentes, sive solutio problematis isoperimetrici lattissimo sensu accepti

Leonhard Euler

This translation has been withdrawn due to certain imperfections and mistakes, which are corrected in the version uploaded at The Euler Archive (see E65 at http://www.eulerarchive.…

math.HO2012★ 13 cited

Theorematum quorundam arithmeticorum demonstrationes

Leonhard Euler, Artur Diener, Alexander Aycock

Euler proves that the sum of two 4th powers can't be a 4th power and that the difference of two distinct non-zero 4th powers can't be a 4th power and Fermat's theorem that the equa…

math.HO2012★ 2 cited

Demonstratio insignis theorematis numerici circa uncias potestatum binomialium

Leonhard Euler, Artur Diener, Alexander Aycock

This paper is about the product z^q/(1 - z)^(q + 1)(1 + (z/(1 - z)))^p, Euler gives the Talylor-Series and takes a closer look at the coefficient.

math.HO2012

Speculationes super formula integrali {\int} (x^ndx)/{\surd}(aa-2bx+cxx), ubi simul egregiae observationes circa fractiones continuas occurrunt

Leonhard Euler, Artur Diener, Alexander Aycock

Euler evaluates the integrals in the title and recognizes a recursion between them, which he then uses to give continued fractions for the log and arctan. The paper is translated f…

math.HO2012★ 2 cited

Commentatio in fractionem continuam, qua illustris La Grange potestates binomiales expressit

Leonhard Euler, Artur Diener, Alexander Aycock

Euler gives a continued fraction representation of (1 + x)n. involving 1,3,5,7,... and n^2-1,n^2-4,n^3-9,... and squares of z, for x=2y and y=z/(1-z). He evaluates this continued f…

math.HO2012

Disquitiones analyticae super evolutione potestatis trinomialis (1+x+xx)^n

Leonhard Euler, Artur Diener, Alexander Aycock

Euler investigates the Taylorseries of (1+x+xx)^n and uses the results to evaluates some integrals which are today often proved with the calculus of residues.