Often called n-dimensional magic rectangles, magic hyperbeams are a variation on magic hypercubes that are filled with integers. But unlike magic hypercubes, they have rectangles instead of squares and the orders along each direction of magic hyperbeams may be different. To find out more about magic hyperbeams, there is a short quiz waiting for you.
The orders along each direction cannot be the same
The orders along each direction may be different
It is involved for only circular dimensions
The orders are in a triangular shape
It generalizes the one dimensional magic rectangle and one dimensional magic beam
It generalizes the two dimensional magic rectangle and the three dimensional magic beam
The magic hyperbeam only moves in two dimensions
The two dimensional magic triangle meets with the three dimension square
[ ki; k=[0..n-1]; i=[0..mk-1] ]:
[ ki; k=[0..n-2]; i=[0..mk-1] ]:
[ ki; k=[0..n-1]; i=[0..mk+1] ]:
[ ki; k=[0..n+1]; i=[0..mk-1] ]:
S = lcm(mi ; i = 0..n-1) (j=0∏n-1mj - 1) / 2
S = lcm(mi ; i = 0..n-1) (j=0∏n-2mj - 1) / 2
S = lcm(mi ; i = 0..n-2) (j=0∏n-1mj - 1) / 2
S = lcm(mi ; i = 0..n-1) (j=0∏n-1mj - 1) / 2
The amount of movements within a hyperbeam
The amount of orders within a hyperbeam
The amount of directions within a hyperbeam
The amount of notations within a hyperbeam
Odd
Even
Parallel
Perpendicular
A
H
N
L
NB * nB : n[i] = n[ [[i \ m]]∏n-2m] + [i % m]]
NB * nB : n[i] = n[ [[i \ m]]∏n-3m] + [i % m]]
NB * nB : n[i] = n[ [[i \ m]]∏n-5m] + [i % m]]
nB * nB : n[i] = n[ [[i \ m]]∏n-1m] + [i % m]]
Nt = N * N +1
Nt = N * N -1
Nt = N * N+2
Nt = N * N
Two dimensional matrices
Three dimension matrices
Two dimensional matrices and three dimensional rectangles
Three dimensional rectangles
Wait!
Here's an interesting quiz for you.