On Jan. 20, 2003, Christian Boyer (France) presented
an order 16 Bi-magic cube. It uses the consecutive numbers from 0 to 4095. S1
= 32,760; S2 = 89,445,720. The S1 cube contains 36 order
16 magic squares.
Within 24 hours, the cube had been confirmed as bimagic by Aale de Winkel
(the Netherlands), Walter Trump (Germany), and myself (Canada), all using different
methods to do so.
The previous record ( and only other bimagic cube?) was an
order 25 by John Hendricks in June, 2000.
(But remember, smaller is better, when constructing these special cubes.)
On Jan. 23, Christian presented another bimagic
cube. This one contains 54 order 16 magic squares, the most possible for an
order 16 cube!
On Jan 27, he produced an order 32 bi-magic cube with all planar
diagonals correct for both S1 and S2, which means there
are 96 order 32 bi-magic squares. The triagonals are tri-magic!
On Feb. 1, 2003, Christian produced the first trimagic cube. It is
order 64 so uses numbers 0 to 262143. As a bonus, the 192 orthogonal planes are
order 64 bimagic squares! Congratulations Christian.
On Feb. 3, 2003 Christian produced an order 256 trimagic cube in which
all 768 orthogonal planes are trimagic squares. This monster uses the numbers
from 0 to 16,777,215. It was confirmed correct on Feb 5 by Walter Trump. When
will this saga end?
On May 13, 2003 announcement of 7 more multimagic cubes with differing
features, including 2 tetramagic cubes! These are on my
Monster cubes page.
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This page describes what I believe to be the first published multimagic cubes.
I have a similar page that illustrates multimagic squares. Featured are Christian Boyer’s Quadra and Pentamagic squares and Walter Trumps amazing (for its size) order 12 trimagic square.
Christian Boyer has an excellent site on multimagic squares and cubes.
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G. Pfeffermann |
An old bimagic square transforms to an old magic cube |
Collison |
This order 5 magic cube is an early attempt at a bimagic cube. |
Hendricks |
This order 25 cube is probably the first bimagic cube published. |
Boyer order 16 |
This bimagic cube is order 16 and contains 36 simple magic squares |
Boyer order 16-2 |
Also order 16 but contains the maximum of 54 simple magic squares |
Boyer trimagic |
e-mail messages announcing his progressively better bimagic and trimagic cubes |
Monster cubes |
This page is an update on Christian Boyer's multimagic hypercubes of May 13/03 |
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Virtually nothing is known about Pfeffermann except that he published a number of magic squares, mostly between 1890 and 1896. The first bimagic square believed published, was by him in Les Tablettes du Chercheur - Journal de Jeux d'Esprit et de Combinaisons, number 2 of January 15, 1891.
This Pfeffermann bimagic square [1] was converted into a magic cube by A. Huber
[2].
This information was supplied to me by Christian Boyer in a Dec. 6, 2002
email.

If the
parts 1, 2, 3 and 4 (or 2, 1, 4, 3, and so on)
are stacked, then we get a magic CUBE (but not bimagic).
The sum is 130 in the 16 columns, 16 rows, 16 pillars, and in the 4 main
diagonals of the cube.
![]() The Huber Cube |
![]() The Huber Cube squared. |
Compare the two cubes on the left with the two squares
above. The Huber cube is magic. All rows, columns, pillars and the 4 main triagonals sum to 130. The degree 2 cube is not magic. None of the 4 sets of lines sum correctly. |
[1]The Pfeffermann bimagic square above
was a problem published in "Revue des Jeux", June 26th, 1891.
The numbers from 1 to 24 were missing, and so the square had to be finished to
be filled.
[2] The solution was published by A. Huber, Revue des Jeux, July 10th, 1891, Paris,
together with
Huber's instructions on how to construct a magic cube from it.
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This order 5 cube by David Collison of Anaheim, CA is ALMOST bimagic!
The cube is associated so the three central orthogonal planes and 1 oblique plane are simple magic squares. Pantriagonals in 3 of the 4 directions are correct. The magic sum is 315 as expected.
The squares of the numbers do
not form a magic cube because most lines do not sum to 26355. However, the total
of the 25 cells in each orthogonal plane (and 3 of the 6 oblique planes) sum to
5 times S2 or 131775.
For a normal magic cube (degree 1), the total of all the cells in each oblique
plane will always sum to mS. This feature is obviously true for all the
orthogonal planes because it is the total of all the rows (or all the columns).
It is true for the oblique planes because all the rows or all the
columns are always the correct sum, and the incorrect columns (or rows) will
always sum to mS.
This cube is associated. It is not pantriagonal because only the pantriagonals in 3 of the 4 directions are correct. Three central orthogonal planes and 1 oblique plane are simple associated magic squares.
V -
Top IV III
27 66 85 124 13 58 97 111 5 44 89 103 17 31 75
65 79 118 7 46 91 110 24 38 52 122 11 30 69 83
98 112 1 45 59 104 18 32 71 90 10 49 63 77 116
106 25 39 53 92 12 26 70 84 123 43 57 96 115 4
19 33 72 86 105 50 64 78 117 6 51 95 109 23 37
II I - Bottom
120 9 48 62 76 21 40 54 93 107
3 42 56 100 114 34 73 87 101 20
36 55 94 108 22 67 81 125 14 28
74 88 102 16 35 80 119 8 47 61
82 121 15 29 68 113 2 41 60 99
John R. Hendricks, Magic
Square Course, self-published, 1991, page 411. 
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Hendricks Order-25 Bimagic Cube
The 25 x 25 square shown here is the top
horizontal layer of John Hendricks 25 x 25 x 25 bimagic cube. It is probably the
first bimagic cube to be published.
Note of Interest. David M. Collison (1937-1991) reported to John
Hendricks in a telephone conversation just days before his untimely death, that
he had constructed an order 25 bimagic cube. No details have since come to light
regarding that cube.
Each of the 25
horizontal planes in Hendricks bimagic cube is a bimagic square. The 25 vertical planes parallel to the front, and
the 25 vertical planes parallel to the side are simple magic squares. (One or both
diagonals of the degree 2 squares are incorrect.)
S1
= 195,325. S2 =
2,034,700,525.
On all 75 of the degree 1 magic squares,
the 25 cells of each 5x5 sub-squares
also sum to 195,325. The cube, of course, has the same
S1 and S2 in each of its 625 rows, columns, pillars and 4 main triagonals.
John used a set of 14 equations to construct this bimagic cube. The cube is displayed using the decimal numbers from 1 to 15,62510 (253) but the construction used the quinary number system with numbers from 000,000 to 444,4445. The coordinate equations also used the the quinary system with numbers from 00 to 445 instead of decimal numbers 1 to 2510.
5590 6570 10675 15380 860 8861 10466 14571 526 4631 9512 14367 2847 3802 8532 13413 1893 3623 7703 12433 1689 5794 7399 11604 12584 4049 8129 9859 13964 3069 7950 12030 13635 2240 3220 11846 12801 1281 6011 7116 15122 1077 5182 6787 10892 148 4978 9083 10063 14793 5733 7338 11443 13048 1503 6384 11239 15344 699 5404 10285 14390 495 4600 9305 14181 2661 4266 8496 9451 2457 3437 7542 12272 13352 4817 8922 10502 14732 87 8718 9698 13778 2883 3988 11994 13599 2054 3659 7764 12645 1875 5955 6935 11665 916 5021 6726 10831 15561 3251 8106 12211 13191 2296 7152 11257 12987 1467 6197 11053 15158 1138 5368 6348 14954 309 4414 9144 10249 2605 4210 8315 9920 14025 14619 599 4679 8784 10389 2770 3875 8580 9560 14290 3541 7646 12476 13456 1936 7442 11547 12502 1732 5837 10718 15448 778 5508 6613 13678 2158 3138 7993 12098 1329 6059 7039 11769 12874 5230 6835 10940 15045 1025 9001 10106 14836 191 4921 9777 13882 3112 4092 8197 15262 742 5472 6427 11157 413 4518 9373 10328 14433 4314 8419 9399 14229 2709 7590 12320 13300 2380 3485 11486 13091 1571 5651 7256 13846 2926 3906 8636 9741 2122 3702 7807 11912 13517 5898 6978 11708 12688 1793 6674 10754 15609 964 5069 10575 14655 10 4865 8970 12910 1390 6245 7225 11305 1181 5286 6266 11121 15201 4457 9187 10167 14897 352 8358 9963 14068 2548 4128 12134 13239 2344 3324 8029 8523 9603 14333 2813 3793 12424 13379 1984 3589 7694 12575 1655 5760 7490 11595 846 5551 6531 10636 15491 4747 8827 10432 14537 517 7082 11812 12792 1272 6102 10983 15088 1068 5173 6753 14759 239 4969 9074 10029 3035 4015 8245 9850 13930 3181 7911 12016 13746 2201 9291 10271 14476 456 4561 9442 14172 2627 4357 8462 13343 2448 3403 7508 12363 1619 5724 7304 11409 13014 5395 6500 11205 15310 665 7855 11960 13565 2045 3650 11626 12731 1836 5941 6921 15527 882 5112 6717 10822 53 4783 8888 10618 14723 3954 8684 9664 13769 2999 6314 11044 15149 1229 5334 10215 14945 300 4380 9235 14111 2591 4196 8276 9881 2262 3367 8097 12177 13157 6163 7143 11373 12953 1433 1902 3507 7737 12467 13447 5803 7408 11513 12618 1723 6579 10684 15414 769 5624 10480 14585 565 4670 8775 14251 2856 3836 8566 9546 1111 5216 6821 10901 15006 4887 9117 10097 14802 157 8163 9768 13998 3078 4058 12064 13669 2149 3229 7959 12840 1320 6050 7005 11860 2700 4280 8385 9490 14220 3471 7551 12281 13261 2491 7372 11452 13057 1537 5642 11148 15353 708 5438 6418 14424 379 4609 9339 10319 1759 5989 6969 11699 12654 5035 6640 10870 15600 930 8931 10536 14641 121 4826 9707 13812 2917 3897 8727 13608 2088 3693 7798 11878 343 4448 9153 10133 14988 4244 8349 9929 14034 2514 8020 12250 13205 2310 3290 11291 12896 1476 6206 7186 15192 1172 5252 6357 11087 11556 12536 1641 5871 7451 15457 812 5542 6522 10727 608 4713 8818 10423 14503 3759 8614 9594 14324 2779 7660 12390 13495 1975 3555 10020 14875 205 4935 9040 13916 3021 4101 8206 9811 2192 3172 7877 12107 13712 6093 7073 11778 12758 1363 6869 10974 15154 1034 5039 12329 13309 2414 3394 7624 13105 1585 5690 7295 11400 626 5481 6461 11191 15296 4527 9257 10362 14467 447 8428 9408 14138 2743 4348 10788 15518 998 5078 6683 14689 44 4774 8979 10584 2965 3945 8675 9630 13860 3736 7841 11946 13526 2006 6887 11742 12722 1802 5907 9997 14077 2557 4162 8267 13148 2353 3333 8063 12168 1424 6129 7234 11339 12944 5325 6280 11010 15240 1220 9221 10176 14906 261 4491
This cube is presented with construction
details in a booklet by John Hendricks published in June, 2000. Included is the
listing for a short Basic program for displaying any of the 13 lines passing
through any selected cell. The program also lists the coordinates of a number
you input.
Holger Danielsson has produced a beautifully typeset and printed booklet with
graphic diagrams and the 25 horizontal planes. He also has a great spreadsheet (BimagicCube.xls)
that shows each of the 25 horizontal bimagic squares (both degree 1 and degree
2).
J. R. Hendricks, A Bimagic Cube Order 25, self-published,
0-9684700-7-6, 2000 (now out-of-print)
Holger Danielsson, Printout of a Bimagic Cube Order 25, self-published, 2001.
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On Jan. 20, 2003, Christian Boyer announced by email a bimagic cube of order 16.
Here are some facts about his cube:
This cube is using numbers from
0 to 4095. Notice that the number 2003
appears in the top left back cell of the cube.
Magic sums: (For rows, columns, pillars and the 4 triagonals)
S1 = 32760
S2 = 89445720
For the degree 1 cube (S1) there are additional features. The diagonals are correct in all 16 horizontal planes and all 16 vertical planes parallel to the sides of the cubes. Also rows and columns are correct for 4 of the 6 diagonal planes. So there are a total of 36 order 16 simple magic squares in this cube.
Another feature found in this cube is the fact that the 8 corners of many sub-cubes sum to 8/16 of S1. In fact, the corners of all the order 9 sub-cubes (including wraparound) within this cube, sum to S/2.
Notice that all of Christian’s bimagic cubes start off with the number of the year in which he discovered them!
This is the top horizontal plane of Christian’s first order 16 bimagic cube. I will not take the time (or space) to list the entire cube.
2003 3079 2551 547 1652 3488 2128 900 1181 3913 2745 365 1338 3822 2846 202 2288 804 1748 3328 2391 643 1907 3239 3006 106 1434 3662 2585 461 1085 4073 3648 1428 100 2992 4071 1075 451 2583 3342 1754 810 2302 3241 1917 653 2393 355 2743 3911 1171 196 2832 3808 1332 557 2553 3081 2013 906 2142 3502 1658 972 2072 3560 1596 619 2495 3151 1947 130 2902 3750 1394 293 2801 3841 1237 3311 1851 715 2335 3400 1692 876 2232 4001 1141 389 2641 3590 1490 34 3062 2655 395 1147 4015 3064 44 1500 3592 2321 709 1845 3297 2230 866 1682 3398 1404 3752 2904 140 1243 3855 2815 299 1586 3558 2070 962 1941 3137 2481 613 2858 254 1294 3802 2701 345 1193 3965 2148 944 1600 3476 2499 535 2023 3123 1033 4061 2605 505 1454 3706 2954 94 1863 3219 2403 695 1760 3380 2244 784 697 2413 3229 1865 798 2250 3386 1774 503 2595 4051 1031 80 2948 3700 1440 3482 1614 958 2154 3133 2025 537 2509 3796 1280 240 2852 3955 1191 343 2691 3893 1249 273 2757 3730 1350 182 2914 3195 1967 607 2443 3548 1544 1016 2092 22 3010 3634 1510 433 2661 3989 1089 856 2188 3452 1704 767 2347 3291 1807 1702 3442 2178 854 1793 3285 2341 753 1512 3644 3020 24 1103 3995 2667 447 2437 593 1953 3189 2082 1014 1542 3538 2763 287 1263 3899 2924 184 1352 3740
The cube shown here was announced via email by Christian Boyer on Jan. 23, 2003
It is an improvement on the cube of 3 days previous because it contains 54 order 16 magic squares instead of the 36 contained in the previous cube. It also was confirmed bimagic by Aale de Winkel, Walter Trump, and myself, all using different methods.
The cube uses
the same number series and thus has the same magic sums as the previous cube.
i.e. numbers from 0 to 4095, S 1 = 32760, S 2 = 89445720. The number 2003 is
once again in the top, left, back cell of the cube. Christian has retained this
feature in all his subsequent multimagic cubes to date.
The 256 lines,
256 columns, 256 pillars, and 4 triagonals are bimagic, making this a true
bimagic cube (as is the previous one). The 96 planar diagonals equal S1
so there are 48 (plus 6 oblique) order 16 magic squares.
However, these planar diagonals are not magic in the degree 2 cube so it contains no magic squares.
Because this cube (in degree 1) contains all magic squares possible, but they are simple magic, the cube falls into a gap in John Hendricks simple, concise, and universal set of classifications for magic hypercubes. John and I originally decided to call this type of cube “Myers”, after the cube by Richard Myers in 1970 that started the whole discussion of “perfect” magic cubes. Later, Aale de Winkel suggested the term diagonal. This is suggestive of the fact that both main diagonals of all 3m planar squares sum correctly to S. This is the term we will use from now on, for this type of magic cube.
Of course, Christian’s cube has the additional, and much more powerful, feature that it is bi-magic.
The planar broken diagonals are incorrect except for the S1 cube where the diagonal pair starting at 0,8 (and 8,0) are correct. This permits swapping the left and right 8 columns of each horizontal plane to obtain a different order 16 magic cube. Likewise you could swap the top and bottom 8 rows (or perform both these transformations). In all cases you get a different magic cube and you get 54 different order 16 magic squares. Be aware however, that these cubes are no longer bimagic. Rows, columns and pillars will be correct on the S2 cube but triagonals will be incorrect.
Another feature is that the
eight corners of many of the sub-cubes within the main cube sum to 8/16 of S1.
It is interesting to note that this feature is much more evident in Christian’s
first cube (Jan. 20). In fact, corners of ALL order 9 sub-cubes (including
wrap-around) sum correctly in that cube!
There are no correct 5x5x5 or 9x9x9 sub-cubes starting on the top 2 horizontal planes (so none in the cube?).
The complete cube listing is here.
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Some email announcements from Christian Boyer!
This email from Christian Boyer
27 Jan 2003 19:38:01 +0100 (CET)
Dear friends,
A new progression in multimagic cubes.
I have constructed today a bimagic cube with this supplemental fact: its
diagonals are bimagic (only magic in my previous cube).
Order 32, so with numbers from 0 to 32767. See the top layer
here.
And some trimagic capabilities are already there: the four triagonals are
trimagic.
Thanks to Walter, he has already checked the cube.
I can send you also the Excel file. Let me know if you want it. The size of the
zipped file is 108Kb.
I think to be able to announce the first trimagic cube this week, or next week.
Kind regards.
Christian.
Because all planar main diagonals are bimagic, there are 96 bimagic squares contained in this cube. Because it is too big for my test spreadsheets, I have not been able to determine what additional properties this cube possesses. (hh)
A few days later
02 Feb 2003
13:01:13 +0100 (CET)
Subject: The first trimagic cube
Dear friends,
I am happy to announce that I have found, yesterday Feb 1st, the first trimagic
cube.
So a magic cube remaining magic when all its numbers are squared, and again
remaining magic when all its numbers are cubed.
It has been confirmed trimagic by our friend Walter.
This cube is order 64 (means 64x64x64), and so is using numbers from 0 to
262143, each number only once...
The 4096 rows, 4096 columns and 4096 pillars are trimagic.
The 4 triagonals (means 4 main diagonals of the cube) are trimagic.
The 384 diagonals -not asked in the definition of a standard magic cube- are
bimagic "only", sorry guys!
The magic sums are:
S 1 = 8388576
S 2 = 1466007115104
S 3 = 288228177132650496
If you want the cube, just send me a message. But be aware that the zipped Excel
file is a 1Mb file!
Kind regards.
Christian.
Another email from Christian on Feb. 5/03
Dear friends,
For your information, the story continues.
A trimagic cube with all its trimagic diagonals (and of course always trimagic rows, columns, pillars and triagonals) have been constructed.
The object is monstrous, order 256. Numbers from 0 to 16,777,215.
The cube is saved in a file having a size of 170Mb. Really too big to send by email...
Walter has kindly accept that I send him the "monster" on a CD-R.
CD-R sent Monday by mail from France, received and tested today by Walter in Germany.
Kind regards.
Christian.
... and thanks again to Walter, he has been forced to modify his test program in order to handle this huge file and his large numbers.
The difference between the order-64 and order-256 trimagic cubes are diagonals.
For both of them, their rows + lines + pillars + triagonals (=the 4 main diagonals) are of course trimagic.
But the 384 diagonals of the order-64 cube are BI-magic "only", compared to the 1536 diagonals of the order-256 cube which are TRI-magic.
So the order 256 trimagic cube has 3 x 256 or 768 order 256 orthogonal trimagic squares.
Christian Boyer has an excellent site on multimagic squares and cubes.
Please send me Feedback about my Web
site!![]()
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Harvey Heinz harveyheinz@shaw.ca
This page last updated
October 15, 2009
Copyright © 2003 by Harvey D. Heinz