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CONTACT 2006 CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley
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CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

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Page 1: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

CONTACT 2006CONTACT 2006

Music of the Spheres in More Than 3 Dimensions

Carlo H. Séquin

EECS Computer Science DivisionUniversity of California, Berkeley

Page 2: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The world is a mysterious place !The world is a mysterious place !

Page 3: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Astrology Astrology

Astronomy Astronomy

Astrophysics Astrophysics

Cosmology Cosmology

Page 4: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Pythagoras of Samos (Pythagoras of Samos (569-475 BC569-475 BC))

“Harmony of the Spheres”

Page 5: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

World Model of the PythagoreansWorld Model of the Pythagoreans

Earth is at the center.

It is surrounded by 5 crystalline spheres,spanned and held up by the 5 Platonic solids.

The planets and the stars are attached to these.

As they rotate, they created musical harmonies.

Music of the Spheres

Page 6: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Claudius Ptolemy (Claudius Ptolemy (85-16585-165))

Page 7: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Johannes Kepler (1571-1630)Johannes Kepler (1571-1630)

Page 8: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Kepler – the ScientistKepler – the Scientist

Planetary orbits:

1. = ellipses; sun in one focal point.

2. equal areas swept out in equal time.

3. (revolution times)2 ~ (long orbit axes)3

Page 9: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Kepler – the GeometricianKepler – the Geometrician

tilings, polyhedra

Page 10: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Kepler – the MysticKepler – the Mystic

Octahedron: Tetrahedron: Dodecahedron: Cube: Icosahedron:

Air Fire the Universe Earth Water

The “meaning” of the five Platonic solids

Page 11: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Johannes Kepler:Johannes Kepler:“Music of the Worlds”“Music of the Worlds”

Diagrams from Kepler’s

De Harmonices Mundi (1618),

showing the melody “sung”

by each heavenly body,

and the way in which they

join in six-part counterpoint.

Page 12: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Kepler – the MysticKepler – the Mystic

Trying to relate the sizes of the planetary orbits

Page 13: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Kepler’s Mysterium CosmographicumKepler’s Mysterium Cosmographicum

relating the sizes of the planetary orbitsvia the fivePlatonic solids.

(1596)

Page 14: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Diameters of Inter-Planetery Spheres Diameters of Inter-Planetery Spheres from the Book of Copernicusfrom the Book of Copernicus

Jup./Sat. = .635 Cube: .577 => -9%

Mars/Jup. = .333 Tetra: .333 => 0%

Earth/Mars = .757 Dodeca: .795 => +5%

Venus/Earth = .794 Icosa: .795 => 0%

Merc./Venus = .723 Octa: .577 => -20%

J. V. Field: "Kepler's Geometrical Cosmology"

Univ. of Chicago Press, 1988, page 65.

mid-edge radius of Octa: .707 => -2%

Page 15: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

A Later Table Expressed in Earth RadiiA Later Table Expressed in Earth Radiiwith corrections by Aiton (1981)with corrections by Aiton (1981)

Saturn aph 9.727 --> 10.588 => +9% peri 8.602 --> 9.364

Jupiter aph 5.492 --> 5.403 => -2% peri 4.999 --> 4.918

Mars aph 1.648 --> 1.639 => -1% peri 1.393 --> 1.386

Earth aph 1.042 --> 1.102 => 0% by def. peri 0.958 --> 0.898

Venus aph 0.721 --> 0.714 => -1% peri 0.717 --> 0.710

Mercury aph 0.481 --> 0.502 => +4% peri 0.233 --> 0.242

Adding the orbit of the moon to make a thicker shell for the earth;

Explanation of errors: Saturn "too far away“, Mercury "too close to sun"

Page 16: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

A Problem – More than Six Planets !A Problem – More than Six Planets !

There are only 5 Platonic solids,

but there are more than 5 orbit intervals!

Universe has more than 3 dimensions

Look into higher dimensions for additional “Platonic” solids.

Higher dimensions ... ? ...

Page 17: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Simplest Regular Objects in Any Dimension:Simplest Regular Objects in Any Dimension: Simplex Series Simplex Series

Connect all the dots among D+1 equally spaced vertices:(Find next one above centroid).

1D 2D 3D

This series goes on indefinitely!

. . .

Page 18: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Another Infinite Series:Another Infinite Series:the Hypercube Seriesthe Hypercube Series

Also called “Measure Polytope” Series

Consecutive perpendicular sweeps:

1D 2D 3D 4D

This series also extends to arbitrary dimensions!

. . .

Page 19: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The 6 Regular Polytopes in 4DThe 6 Regular Polytopes in 4D

Projections to 3D Space

Page 20: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The Regular 4D 120-Cell (The Regular 4D 120-Cell (projected to 3Dprojected to 3D))

600 vertices, 1200 edges.

Page 21: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The Regular 4D 600-Cell (The Regular 4D 600-Cell (projected to 3Dprojected to 3D))

David Richter

120 vertices,

720 edges.

Page 22: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Advantage of Using 4D PolytopesAdvantage of Using 4D Polytopes

Four different sphere radii on each polytope:

Through its vertices = Rv

Through its edge-midpoints = Re

Through its face centers = Rf

Through its cell centers = Rc

For Hypercube:

2.000

1.732

1.414

1.000

Thus we can form 6 different radius ratios !

Page 23: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Ratios of Sphere Radii of 4D PolytopesRatios of Sphere Radii of 4D Polytopes

Simplex .250 .408 .408 .612 .667 .612Tesseract .500 .577 .707 .707 .816 .866Crosspoly .500 .707 .577 .866 .817 .70724-Cell .707 .816 .817 .866 .943 .866120-Cell .926 .934 .973 .951 .982 .991600-Cell .925 .973 .934 .991 .982 .951

Rc/Rv Rc/Re Rc/Rf Rf/Rv Rf/Re Re/Rv

Page 24: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

How Well Do the New Numbers Fit ?How Well Do the New Numbers Fit ?

Mercury 0.39Venus 0.72Earth 1.00Mars 1.53Asteroids 2.22Jupiter 5.22Saturn 9.58Uranus 19.28Neptune 30.21Pluto 39.63Sedna 70.47

0.537 0.577 7.40.725 0.707 -2.50.654 0.667 2.10.689 0.707 2.60.425 0.408 -4.10.545 0.577 5.90.497 0.5 0.60.638 0.612 -4.10.762 0.816 7.10.562 0.577 2.6

Planet Orbit Ratio Best Fit %Error

Page 25: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Johann Daniel Titius (Tietz) (Johann Daniel Titius (Tietz) (1729-961729-96))

Prussian astronomer, physicist, and biologist whose law (1766) expressing the distances between the planets and the Sun was confirmed by J.E. Bode in 1772.

"Titius, Johann Daniel." Encyclopædia Britannica. 2006. Encyclopædia Britannica Premium Service. 12 Mar. 2006 http://www.britannica.com/eb/article-9072653

Page 26: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Table by Johann Titius (Table by Johann Titius (17661766))

PLANET ORBIT 10R-4

Mercury 0.39 0

Venus 0.72 3

Earth 1.00 6

Mars 1.53 12

Jupiter 5.22 48

Saturn 9.58 96

Neptune 30.21 298 (1846)

Georgian Pl. 19.18 192 (1781: Uranus)

“Selene” ? 2.80 24 (missing planet)

Page 27: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Table by Johann Titius (Table by Johann Titius (revisitedrevisited)) PLANET ORBIT 10R-4

Mercury 0.39 0

Venus 0.72 3

Earth 1.00 6

Mars 1.53 11

(asteroids) - - -

Jupiter 5.22 48

Saturn 9.58 92

Uranus 19.18 188

Neptun 30.06 296

Page 28: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Is the UniverseIs the Universea Dodecahedral a Dodecahedral PoincarPoincaréé Space? Space?

Oct. 2003

Page 29: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Evidence for Dodecahedral Universe ?Evidence for Dodecahedral Universe ?

Power spectrum of the cosmic microwave background (CMB) radiation. Data from WMAP have extended the accuracy of the spectrum far beyond what was known from earlier measurements. This plot reflects the small differences in the temperature of the CMB across the sky. There are a series of peaks in the spectrum at small angular separations, but at large scales that structure disappears. Standard cosmological models cannot explain this, but Luminet and colleagues’ topological model for a finite universe can (image and text credit: Nature 425 566).

Page 30: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

String Concert in 10 Dimensions ?String Concert in 10 Dimensions ?

String theory, the current favorite ...

1200 scientists, mathematicians work on it.

Subatomic particles are resonances of very small (10-35m) loopy strings.

Need to introduce 7 extra dimensions to make numbers work out – sort of ...

These strings are as invisible as Plato’s crystalline spheres.

Page 31: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The Great PyramidThe Great Pyramidhttp://www.infinitetechnologies.co.za/articles/thegreatpyramid.htmlhttp://www.infinitetechnologies.co.za/articles/thegreatpyramid.html

Mean Distance to the Sun: The height of the pyramid times 109 represents the mean radius of the Earth's orbit around the sun.

Mean Distance to the Moon: The length of the Jubilee passage* times 7*107 is the mean distance to the moon. ( * Don’t ask ! )

Tropical Year: The length of the Antechamber used as the diameter of a circle produces a circumference of 365.242 (accurate to 6 digits).

Many more ...

Page 32: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Adventures in ScienceAdventures in Scienceand Cyclosophy” and Cyclosophy”

Cornelis De Jager (astrophysicist),

Skeptical Inquirer,Vol 16, No 2, Winter 1992, pp 167 - 172. 

Page 33: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Dutch BicycleDutch Bicycle

W = Wheel diameter (“defines direction of path”)

P = Pedal diameter (“gives power, forward dynamics”) L = Lamp diameter (“enlightens the search path”) B = Bell diameter (“means of communication...”)

B

P

L

W

Page 34: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Amazing ResultsAmazing Results P2 * ( L B )1/2 = 1823 =

P4 * W2 = 137.0 = Fine Structure Constant

P-5 * ( L / WB )1/3 = 6.67*10-8 = Gravitation Constant

P1/2 * B1/3 / L = 1.496 = Distance to Sun (108 km)

W * P2 * L1/3 * B5 = 2.999*105 ~ Speed of Light (km/s)

Mass of Proton Mass of Electron

2.998error of measurement ?

Page 35: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Computerized SearchComputerized Search

= Aa * Bb * Cc * Dd

a, b, c, d can assume:all integer values from – 5 to + 5,and also the values ± 1/2, ± 1/3, ± .

A, B, C, D, are arbitrary assumed constants.

Compare (83521 combinations) with databaseof natural constants or simple ratios thereof.

Page 36: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Matching Your Measurements Matching Your Measurements to Your Favorite Theory ...to Your Favorite Theory ...

You can always find good matches, if you look hard enough and ignore measurement uncertainties.

So this seems like a pretty silly game ...

Millions of people are doing it !!

Page 37: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Golden Ratio is Everywhere ...Golden Ratio is Everywhere ...length to width of rectangle = 1.61803 39887 49894 84820length to width of rectangle = 1.61803 39887 49894 84820

Page 38: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Statistics on Random RectanglesStatistics on Random Rectangles

In range of rectangle ratios from 1.0 to 2.0

1/3 of all rectangles fit within 10% (1.45-1.78)

1/30 fit within 1% (1.602-1.634) of golden ratio.

Golden Ratio

1:1 1:2

Page 39: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Key Message !Key Message !

The number-matching game is too easy to play.

Most of the found results are meaningless !

MUSIC as Art ...

Page 40: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Music of the SpheresMusic of the Spheres

Is it still playing ?? playing ??

Let’s look on the Web ...

Acknowledgements

Thanks to the Internet and to the Google search engine !

Page 41: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

The Science of Harmonic Energy and Spirit

unification of the harmonic languages of color,

music, numbers and waves 

““Music of the Spheres” Music of the Spheres” www.spectrummuse.comwww.spectrummuse.com

Page 42: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Sand Mandela by Rosalind GittingsSand Mandela by Rosalind Gittings

Page 43: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres”Music of the Spheres”by Lisa by Lisa [email protected]@techren.com

Page 44: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” by Isabel RooneyMusic of the Spheres” by Isabel Rooney

Page 45: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

A Novel by Elizabeth RedfernA Novel by Elizabeth Redfern London, 1795

Spy story

French astronomersin exile,

sending secret informationhidden in tables of astronomical data.

Describes numbers gameby Johannes Titius ...

Page 46: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” by Bernard XolotlMusic of the Spheres” by Bernard Xolotl

Page 47: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Yorkshire Building Society BandYorkshire Building Society Band

Page 48: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Deutsche BlDeutsche Blääserphilharmonieserphilharmonie

Page 49: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Wind ChimesWind Chimes

Page 50: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” - John RobinsonMusic of the Spheres” - John Robinson

Page 51: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” by Paul KatrichMusic of the Spheres” by Paul Katrich

Page 52: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” Music of the Spheres” Kinetic Sculpture by Susan Pascal BeranKinetic Sculpture by Susan Pascal Beran

Page 53: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” - Nancy MooslinMusic of the Spheres” - Nancy Mooslin

Page 54: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

““Music of the Spheres” - Nancy MooslinMusic of the Spheres” - Nancy Mooslin

Page 55: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Music of the Spheres by Brent CollinsMusic of the Spheres by Brent Collins

Page 56: CONTACT 2006 Music of the Spheres in More Than 3 Dimensions Carlo H. Séquin EECS Computer Science Division University of California, Berkeley.

Music of the SpheresMusic of the Spheres