Rank computations for the congruent number elliptic curves.
Rogers, Nicholas F. (2000)
Experimental Mathematics
Similarity:
The search session has expired. Please query the service again.
The search session has expired. Please query the service again.
The search session has expired. Please query the service again.
The search session has expired. Please query the service again.
Rogers, Nicholas F. (2000)
Experimental Mathematics
Similarity:
Enrico Jabara (2012)
Acta Arithmetica
Similarity:
Armand Brumer, Oisín McGuinness (1992)
Inventiones mathematicae
Similarity:
Dujella, Andrej, Janfada, Ali S., Salami, Sajad (2009)
Journal of Integer Sequences [electronic only]
Similarity:
Leopoldo Kulesz (2003)
Acta Arithmetica
Similarity:
Hizuru Yamagishi (1998)
Manuscripta mathematica
Similarity:
Joseph H. Silvermann (1982)
Inventiones mathematicae
Similarity:
Kumiko Nakata (1979)
Manuscripta mathematica
Similarity:
Tesuji Shioda (1991)
Inventiones mathematicae
Similarity:
Lisa Berger (2012)
Acta Arithmetica
Similarity:
Tim Dokchitser (2007)
Acta Arithmetica
Similarity:
Kulesz, Leopoldo, Stahlke, Colin (2001)
Experimental Mathematics
Similarity:
Sungkon Chang (2010)
Acta Arithmetica
Similarity:
Koh-ichi Nagao (1997)
Manuscripta mathematica
Similarity:
Farzali Izadi, Foad Khoshnam, Arman Shamsi Zargar (2016)
Colloquium Mathematicae
Similarity:
We construct a family of elliptic curves with six parameters, arising from a system of Diophantine equations, whose rank is at least five. To do so, we use the Brahmagupta formula for the area of cyclic quadrilaterals (p³,q³,r³,s³) not necessarily representing genuine geometric objects. It turns out that, as parameters of the curves, the integers p,q,r,s along with the extra integers u,v satisfy u⁶+v⁶+p⁶+q⁶ = 2(r⁶+s⁶), uv = pq, which, by previous work, has infinitely many integer solutions. ...