2017
DOI: 10.3390/math5030036
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Lattices and Rational Points

Abstract: Abstract:In this article, we show how to use the first and second Minkowski Theorems and some Diophantine geometry to bound explicitly the height of the points of rank N − 1 on transverse curves in E N , where E is an elliptic curve without Complex Multiplication (CM). We then apply our result to give a method for finding the rational points on such curves, when E has Q-rank ≤ N − 1. We also give some explicit examples. This result generalises from rank 1 to rank N − 1 previous results of S. Checcoli, F. Venez… Show more

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Cited by 2 publications
(2 citation statements)
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“…Central to this purpose is the use of the first Minkowski theorem instead of other easier but less sharp approximations. This proof generalizes the proof in [CVV19] from rank one to higher rank and the proof of [Via17] from Z-lattices to O-lattices, with O an order in the ring of integers of an imaginary quadratic number field. This completes all cases of the explicit Mordell Conjecture that can be covered with our method and opens a wide range of examples of curves suitable for determining the k-rational points.…”
Section: Sketch Of the Proof Of Theorem 12supporting
confidence: 65%
See 1 more Smart Citation
“…Central to this purpose is the use of the first Minkowski theorem instead of other easier but less sharp approximations. This proof generalizes the proof in [CVV19] from rank one to higher rank and the proof of [Via17] from Z-lattices to O-lattices, with O an order in the ring of integers of an imaginary quadratic number field. This completes all cases of the explicit Mordell Conjecture that can be covered with our method and opens a wide range of examples of curves suitable for determining the k-rational points.…”
Section: Sketch Of the Proof Of Theorem 12supporting
confidence: 65%
“…In that paper we tested the possibility of producing an explicit and even implementable method for finding the rational points on some new families of algebraic curves. In [Via18] and [Via17] Viada extended the previous methods of [CVV17] and [CVV19], obtaining partial and less sharp results that are however too large to be implemented.…”
Section: Introductionmentioning
confidence: 99%