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Laurent Hollo - 2012

Laurent Hollo - 2012. The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

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Page 1: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Laurent Hollo - 2012

Page 2: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

The concept of Dimension◦ Multiple universes and parallel worlds◦ Space-time continuum (3+1)◦ The definition of physical quantities

The SI system◦ A formalization of

UNITS and DIMENSIONS

Page 3: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Dimensions vs Units

7 fundamental quantities

DimensionThe formal definition ofphysical quantities

Name Unit Symbol

Distance Meter L Mass Kilogram M Time Second T Current Ampere I Light Candela J Heat Kelvin K Concentration Mole N

0000210][ NKJITLMa

gfedcba NKJITLMQ ][ gfedcba NKJITLMQ ][ 1LTv

2LTa

2MLTF132][ ITMLU

Page 4: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Multiplication / Division Addition / Substraction

maF Mm ][

2][ LTa

2][ MLTF

gfedcba NKJITLMQ ][

QEF

TIQ ][13][ IMLTE

21212121212121][*][ 21ggffeeddccbbaa NKJITLMQQ

Page 5: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Physical quantities can be derived from space and time only

[Q]=LxTy

Space-Time derivation approaches◦ Maxwell [M] = L3T-2 A Treatise on Electricity and Magnetism◦ Roberto Oros di Bartini [M] = L3T-2 Relations Between Physical Constants◦ Reciprocal Systems [M] = L-3T3 http://www.reciprocalsystem.com◦ Xavier Borg [M] = L-3T3 Unified Theory Foundations (http://www.blazelabs.com)◦ JWG Wignall [M] = T-1 Some comments on the definition of mass◦ M Malovic [M] = L3 The nature of mass◦ Add LUFE + Naturix

Nothing in current knowledge clearly demonstrates [M]=LXTY

As F = Ma = GM2/r2

Then GM = ar2

So [GM] = L3T-2But

« If, as in the astronomical system, the unit of mass is defined with respect to its attractive power, the dimensions of [M] are [L3T − 2] » J.C. Maxwell

Page 6: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

maF 22 rKQF

KmarQ 22

1232 KTMLQ

12321 TLMQ

1K

2121 LMQ 22 TLK

Planck values FALSE QP≠MP1/2LP

3/2TP-1 TRUE QP=MP

1/2LP1/2

Electron values FALSE TRUE (Me * Re* 1e+7) ½ = 1,60217E-19 C

[Q2] = ML[Q2] = ML

ElectroStatic ElectroMagnetic

Page 7: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Definition (Wikipedia):The Cartesian product of two sets X … and Y …, denoted X × Y, is the set of all possible ordered pairs whose first component is a member of X and whose second component is a member of Y (e.g., the whole of the x–y plane):

Page 8: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 9: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 10: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

If we agree that the dimension of physical quantities can be derived from space-time only ([Q]=LxTy)

Then, by definition, all physical quantities are part of the Cartesian product of the space and time sets

If we build a matrix that presents the Cartesian product of Planck’s space and time sets (LP

x * TPy)

Then all Planck values must appear on this matrix

Page 11: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

The SpaceTime Matrix

Simple and visual operations◦ Horizontal: Multiply or divide by length◦ Vertical: Multiply or divide by time

Highlights dimensional relationships

Defines Densities

Density Distribution Gradient Quantity

Flow

SPACE

TIME

Page 12: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Space

Tim

e

Planck Time Planck Length

*LP *LP

Page 13: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

-4 -3 -2 -1 0 1 2 3 44 1,2380E-34 2,0009E-69 3,2340E-104 5,2269E-139 8,4480E-174 1,3654E-208 2,2068E-243 3,5668E-278 0

3 2,2963E+09 3,7114E-26 5,9986E-61 9,6952E-96 1,5670E-130 2,5326E-165 4,0934E-200 6,6160E-235 1,0693E-269

2 4,2593E+52 6,8841E+17 1,1127E-17 1,7983E-52 2,9065E-87 4,6977E-122 7,5927E-157 1,2272E-191 1,9834E-226

1 7,9004E+95 1,2769E+61 2,0638E+26 3,3356E-09 5,3912E-44 8,7136E-79 1,4083E-113 2,2762E-148 3,6790E-183

0 1,4654E+139 2,3685E+104 3,8281E+69 6,1872E+34 1 1,6163E-35 2,6123E-70 4,2221E-105 6,8240E-140

-1 2,7182E+182 4,3932E+147 7,1006E+112 1,1476E+78 1,8549E+43 2,9979E+08 4,8454E-27 7,8314E-62 1,2658E-96

-2 5,0418E+225 8,1488E+190 1,3171E+156 2,1287E+121 3,4405E+86 5,5607E+51 8,9876E+16 1,4526E-18 2,3478E-53

-3 9,3519E+268 1,5115E+234 2,4430E+199 3,9484E+164 6,3817E+129 1,0314E+95 1,6671E+60 2,6944E+25 4,3548E-10

-4 #NUM! 2,8036E+277 4,5314E+242 7,3238E+207 1,1837E+173 1,9132E+138 3,0922E+103 4,9977E+68 8,0776E+33

=LP3 * TP

-2

Speed of light = LP1 * TP

-1

Page 14: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

-4 -3 -2 -1 0 1 2 3 4 5 65 6,6743E-78 1,0787E-112 1,7435E-147 2,8179E-182 4,5545E-217 7,3613E-252 1,1898E-286

4 1,2380E-34 2,0009E-69 3,2340E-104 5,2269E-139 8,4480E-174 1,3654E-208 2,2068E-243 3,5668E-278

3 2,2963E+09 3,7114E-26 5,9986E-61 9,6952E-96 1,5670E-130 2,5326E-165 4,0934E-200 6,6160E-235 1,0693E-269 1,7283E-304

2 4,2593E+52 6,8841E+17 1,1127E-17 1,7983E-52 2,9065E-87 4,6977E-122 7,5927E-157 1,2272E-191 1,9834E-226 3,2057E-261 5,1812E-296

1 7,9004E+95 1,2769E+61 2,0638E+26 3,3356E-09 5,3912E-44 8,7136E-79 1,4083E-113 2,2762E-148 3,6790E-183 5,9461E-218 9,6104E-253

0 1,4654E+139 2,3685E+104 3,8281E+69 6,1872E+34 1 1,6163E-35 2,6123E-70 4,2221E-105 6,8240E-140 1,1029E-174 1,7826E-209

-1 2,7182E+182 4,3932E+147 7,1006E+112 1,1476E+78 1,8549E+43 2,9979E+08 4,8454E-27 7,8314E-62 1,2658E-96 2,0458E-131 3,3065E-166

-2 5,0418E+225 8,1488E+190 1,3171E+156 2,1287E+121 3,4405E+86 5,5607E+51 8,9876E+16 1,4526E-18 2,3478E-53 3,7946E-88 6,1331E-123

-3 9,3519E+268 1,5115E+234 2,4430E+199 3,9484E+164 6,3817E+129 1,0314E+95 1,6671E+60 2,6944E+25 4,3548E-10 7,0385E-45 1,1376E-79

-4 2,8036E+277 4,5314E+242 7,3238E+207 1,1837E+173 1,9132E+138 3,0922E+103 4,9977E+68 8,0776E+33 1,3055E-01 2,1101E-36

maF

2

21

r

MMGF

2arGM

If [M]=L3T-2 Then [G]=1And [h]=L5T-3

As LP5TP

-3≠MP

Then [M]=L3T-2 is mathematically impossible

If [M]=L3T-2 Then [G]=1And [h]=L5T-3

As LP5TP

-3≠MP

Then [M]=L3T-2 is mathematically impossible

Page 15: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

-2 -1 0 1 2 3 4 5 6 7 85 4,5538E-217

4 8,4469E-174

3 1,5668E-130

2 2,9064E-87

1 5,3911E-44

0 3,8283E+69 6,1874E+34 1 1,6162E-35 2,6121E-70 4,2217E-105 6,8231E-140 1,1027E-174 1,7823E-209 2,8805E-244 4,6554E-279

-1 1,8549E+43

-2 3,4407E+86

-3 6,3823E+129

-4 1,1839E+173

-5 2,1960E+216

-6 4,0734E+259

-7 7,5558E+302 2,1764E+59

-8

CODATALp = 1.616 199 E-35 mTp = 5.391 06 E-44 sMp = 2.176 51(13) E-8 kgLp7Tp-7 = 2,176 42 E+59 m7/s7

CODATALp = 1.616 199 E-35 mTp = 5.391 06 E-44 sMp = 2.176 51(13) E-8 kgLp7Tp-7 = 2,176 42 E+59 m7/s7

Page 16: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

-4 -3 -2 -1 0 1 25 6,6741E-78 4,5538E-217

4 8,4469E-174

3 1,5668E-130

2 2,9064E-87

1 5,3911E-44

0 1,4656E+139 2,3687E+104 3,8283E+69 6,1874E+34 1 1,6162E-35 2,6121E-70

-1 1,8549E+43

-2 3,4407E+86

-3 6,3823E+129

-4 1,1839E+173CODATALp = 1.616 199 E-35 mTp = 5.391 06 E-44 sG = 6.673 84(80) E-11 kg-1m3s-2

Lp-4Tp5 = 6.674 08 E+59 m-4s5

CODATALp = 1.616 199 E-35 mTp = 5.391 06 E-44 sG = 6.673 84(80) E-11 kg-1m3s-2

Lp-4Tp5 = 6.674 08 E+59 m-4s5

Page 17: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

-1 0 1 ... 7 8 95 4,5538E-217

4 8,4469E-174

3 1,5668E-130

2 2,9064E-87

1 5,3911E-44

0 6,1874E+34 1 1,6162E-35 1,7823E-209 2,8805E-244 4,6554E-279

-1 1,8549E+43

-2 3,4407E+86

-3 6,3823E+129

-4 1,1839E+173

-5 2,1960E+216

-6 4,0734E+259

-7 7,5558E+302

-8 6,5248E+67 1,0545E+33

-9 1,2103E+111 1,9561E+76

-10 3,6284E+119

Page 18: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 19: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Mas

s

Space

Tim

e

Page 20: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 21: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 22: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Conduction group◦ Charge and densities

Radiation group◦ Flux, Potential and Field

Static and Dynamic Groups◦ Medium properties

ρ D Q

J I

E U Φ

R ρ

Y K

ε C

σ G

Page 23: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities
Page 24: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

The logic◦ If we agree that the dimension of physical quantities can be

derived from space-time only ([Q]=LxTy)◦ Then, by definition, all physical quantities are part of the

Cartesian product of the space and time sets◦ If we build a matrix that presents the Cartesian product of

Planck’s space and time sets (LPx * TP

y)◦ Then all Planck values must appear on this matrix

The results◦ The SpaceTime Matrix◦ Based on the Cartesian Product and Dimensional Analysis we

know that Quantities corresponding to MP and G must be on the Matrix [M]=L3T-2 is FALSE [M] = LP

x*TPy is FALSE

The only value “close” to MP is LP7TP

-7

Page 25: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

1E83 = (1E30)2 + 1E7 + 1E16 20 space dimensions - 18 time dimensions

Space (20)

Tim

e (

18

)

Page 26: Laurent Hollo - 2012.  The concept of Dimension ◦ Multiple universes and parallel worlds ◦ Space-time continuum (3+1) ◦ The definition of physical quantities

Group Gravitic Electric Magnetic Thermic

Conduction 1E+67 1E+30 1E+30 1E+216

Radiation 1E+00 1E+37 1E+37 1E+283

Static 1E-67 1E+07 1E+07 1E+67

Dynamic 1E+67 1E-07 1E-07 1E-67