Euler Perfect Box

08 August 2024, Version 2
This content is an early or alternative research output and has not been peer-reviewed by Cambridge University Press at the time of posting.

Abstract

1- I chose a box of different dimensions. H = a, W = a + r, L = a + k, and (k ≠ r ≠ a) Substitute in equation: g^2 =a^2 +b^2 +c^2, g ∈ N+ ⇒ a =r = k … contradiction to (k ≠ r ≠ a) If (k ≠ r ≠ a) ⇒ g ∉ N+ 2- If W = L, or W = L = H ⇒ d (diagonal) ∉ N+ ∴ from all above the Euler Perfect Box doesn’t exist.

Keywords

Euler
Perfect Box
Math
Unsolved Math
Taha
UK
USA
Kurdistan

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Comment number 1, Taha Muhammad: Sep 30, 2024, 20:24

Euler Perfect Box An Euler brick is a cuboid with integer side dimensions such that the face diagonals are integers. Already in 1740, families of Euler bricks have been found. Euler himself constructed more families. If the space diagonal of an Euler brick is an integer too, an Euler brick is called a perfect Euler brick. If a, b, c, d, e, f ∈N_+, and if g∈N_(+ ) too, then Euler Perfect Box exist