Planck units (geometrical)

Natural Planck units as geometrical objects (the mathematical electron model)

In a geometrical Planck unit theory, the dimensioned universe at the Planck scale is defined by discrete geometrical objects for the Planck units; Planck mass, Planck length, Planck time and Planck charge. The object embeds the attribute (mass, length, time, charge) of the unit, whereas for numerical based constants, the numerical values are dimensionless frequencies of the SI unit (kg, m, s, A), 3kg refers to 3 of the unit kg, the number 3 carries no mass-specific information.

### Geometrical objects

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The mathematical electron [1] is a Planck unit model where mass  M {\displaystyle M} , length  L {\displaystyle L} , time  T {\displaystyle T} , and ampere  A {\displaystyle A} are each assigned discrete geometrical objects from the geometry of 2  dimensionless physical constants, the (inverse)  fine structure constant α and  Omega Ω. Embedded into each object is the object function (attribute).

Table 1. Geometrical units  Attribute  | Geometrical object

|

mass  |  M = ( 1 ) {\displaystyle M=(1)}
time  |  T = ( π ) {\displaystyle T=(\pi )}
sqrt(momentum) |  P = ( Ω ) {\displaystyle P=(\Omega )}
velocity  |  V = ( 2 π Ω 2 ) {\displaystyle V=(2\pi \Omega ^{2})}
length  |  L = ( 2 π 2 Ω 2 ) {\displaystyle L=(2\pi ^{2}\Omega ^{2})}
ampere  |  A = 16 V 3 α P 3 = ( 2 7 π 3 Ω 3 α ) {\displaystyle A={\frac {16V^{3}}{\alpha P^{3}}}=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})}

As the geometries of dimensionless constants, these objects are also dimensionless and so are independent of any system of units, and of any numerical system, and so could qualify as "natural units" (naturally occuring units);

> ...ihre Bedeutung für alle Zeiten und für alle, auch außerirdische und außermenschliche Kulturen notwendig behalten und welche daher als »natürliche Maßeinheiten« bezeichnet werden können...

> ...These necessarily retain their meaning for all times and for all civilizations, even extraterrestrial and non-human ones, and can therefore be designated as "natural units"... -Max Planck [2][3]

As geometrical objects, they may combine Lego-style to form more complex objects such as electrons (i.e.: by embedding mass and ampere objects into the geometry of the electron (the electron object), the electron can have wavelength and charge) [4]. This requires a mathematical (unit number) relationship that defines how the objects interact with each other.

Table 2. Unit number  Attribute  | Object  | Unit number θ

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mass  |  M = ( 1 ) {\displaystyle M=(1)} |  15 {\displaystyle 15}
time  |  T = ( π ) {\displaystyle T=(\pi )} |  − 30 {\displaystyle -30}
sqrt(momentum) |  P = ( Ω ) {\displaystyle P=(\Omega )} |  16 {\displaystyle 16}
velocity  |  V = ( 2 π Ω 2 ) {\displaystyle V=(2\pi \Omega ^{2})} |  17 {\displaystyle 17}
length  |  L = ( 2 π 2 Ω 2 ) {\displaystyle L=(2\pi ^{2}\Omega ^{2})} |  − 13 {\displaystyle -13}
ampere  |  A = 16 V 3 α P 3 = ( 2 7 π 3 Ω 3 α ) {\displaystyle A={\frac {16V^{3}}{\alpha P^{3}}}=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})} |  3 {\displaystyle 3}

As alpha (α = 137.035 999 084) and Omega (Ω = 2.007 134 949 636) both have numerical solutions, we can assign to MLTA numerical values, i.e.: V = 2πΩ2 = 25.3123819 and use to solve geometrical physical constant equivalents.

Table 3. Physical constant equivalents  CODATA 2014 [5] | SI unit  | Geometrical constant  | unit uθ

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c = 299 792 458 (exact)  |  m s {\displaystyle {\frac {m}{s}}} | c* = V = 25.312381933  |  u 17 {\displaystyle u^{17}}
h = 6.626 070 040(81) e-34  |  k g m 2 s {\displaystyle {\frac {kg\;m^{2}}{s}}} | h* =  2 π M V L {\displaystyle 2\pi MVL} = 12647.2403  |  u 15 + 17 − 13 {\displaystyle u^{15+17-13}} =  u 19 {\displaystyle u^{19}}
G = 6.674 08(31) e-11  |  m 3 k g s 2 {\displaystyle {\frac {m^{3}}{kg\;s^{2}}}} | G* =  V 2 L M {\displaystyle {\frac {V^{2}L}{M}}} = 50950.55478  |  u 34 − 13 − 15 {\displaystyle u^{34-13-15}} =  u 6 {\displaystyle u^{6}}
e = 1.602 176 620 8(98) e-19  |  C = A s {\displaystyle C=As} | e* =  A T {\displaystyle AT} = 735.70635849  |  u 3 − 30 {\displaystyle u^{3-30}} =  u − 27 {\displaystyle u^{-27}}
kB = 1.380 648 52(79) e-23  |  k g m 2 s 2 K {\displaystyle {\frac {kg\;m^{2}}{s^{2}\;K}}} | kB* =  2 π V M A {\displaystyle {\frac {2\pi VM}{A}}} = 0.679138336  |  u 17 + 15 − 3 {\displaystyle u^{17+15-3}} =  u 29 {\displaystyle u^{29}}

We then find that where the unit numbers cancel, the numerical solutions agree (see Table 8).

Table 4. Dimensionless combinations  CODATA 2014 (mean)  | (α, Ω)  | units uΘ = 1

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k B e c h = {\displaystyle {\frac {k_{B}ec}{h}}=} 1.000 8254 |  ( k B ∗ ) ( e ∗ ) ( c ∗ ) ( h ∗ ) {\displaystyle {\frac {(k_{B}^{*})(e^{*})(c^{*})}{(h^{*})}}} = 1.0 |  ( u 29 ) ( u − 27 ) ( u 17 ) ( u 19 ) = 1 {\displaystyle {\frac {(u^{29})(u^{-27})(u^{17})}{(u^{19})}}=1}
h 3 e 13 c 24 = {\displaystyle {\frac {h^{3}}{e^{13}c^{24}}}=} 0.228 473 639... 10-58 |  ( h ∗ ) 3 ( e ∗ ) 13 ( c ∗ ) 24 = α 13 2 106 π 64 ( Ω 15 ) 5 = {\displaystyle {\frac {(h^{*})^{3}}{(e^{*})^{13}(c^{*})^{24}}}={\frac {\alpha ^{13}}{2^{106}\pi ^{64}(\color {red}\Omega ^{15})^{5}\color {black}}}=} 0.228 473 759... 10-58 |  ( u 19 ) 3 ( u − 27 ) 13 ( u 17 ) 24 = 1 {\displaystyle {\frac {(u^{19})^{3}}{(u^{-27})^{13}(u^{17})^{24}}}=1}
h c 2 e m p G 2 k B = {\displaystyle {\frac {hc^{2}em_{p}}{G^{2}k_{B}}}=} 3.376 716 |  ( h ∗ ) ( c ∗ ) 2 ( e ∗ ) M ( G ∗ ) 2 ( k B ∗ ) = 2 11 π 3 α 2 = {\displaystyle {\frac {(h^{*})(c^{*})^{2}(e^{*})M}{(G^{*})^{2}(k_{B}^{*})}}={\frac {2^{11}\pi ^{3}}{\alpha ^{2}}}=} 3.381 506 |  ( u 19 ) ( u 17 ) 2 ( u − 27 ) ( u 15 ) ( u 6 ) 2 ( u 29 ) = 1 {\displaystyle {\frac {(u^{19})(u^{17})^{2}(u^{-27})(u^{15})}{(u^{6})^{2}(u^{29})}}=1}

#### Scalars

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To translate from geometrical objects to a numerical system of units requires system dependent scalars (kltpva). For example;

If we use k to convert M to the SI Planck mass (M*kSI =  m P {\displaystyle m_{P}} ), then kSI = 0.2176728e-7kg (SI units)

Using vSI = 11843707.905m/s gives c = V*vSI = 299792458m/s (SI units)

Using vimp = 7359.3232155miles/s gives c = V*vimp = 186282miles/s (imperial units)

Table 5. Geometrical units  Attribute  | Geometrical object  | Scalar  | Unit uθ

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mass  |  M = ( 1 ) {\displaystyle M=(1)} | k |  u 15 {\displaystyle u^{15}}
time  |  T = ( π ) {\displaystyle T=(\pi )} | t |  u − 30 {\displaystyle u^{-30}}
sqrt(momentum) |  P = ( Ω ) {\displaystyle P=(\Omega )} | r2 |  u 16 {\displaystyle u^{16}}
velocity  |  V = ( 2 π Ω 2 ) {\displaystyle V=(2\pi \Omega ^{2})} | v |  u 17 {\displaystyle u^{17}}
length  |  L = ( 2 π 2 Ω 2 ) {\displaystyle L=(2\pi ^{2}\Omega ^{2})} | l |  u − 13 {\displaystyle u^{-13}}
ampere  |  A = ( 2 7 π 3 Ω 3 α ) {\displaystyle A=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})} | a |  u 3 {\displaystyle u^{3}}

#### Scalar relationships

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Because the scalars also include the SI unit, v = 11843707.905m/s ... they follow the unit number relationship uθ. This means that we can find ratios where the scalars cancel. Here are examples (units = 1), as such only 2 scalars are required, for example, if we know the numerical value for a and for l then we know the numerical value for t (t = a3l3), and from l and t we know the value for k.

u 3 ∗ 3 u − 13 ∗ 3 u − 30 ( a 3 l 3 t ) = u − 13 ∗ 15 u 15 ∗ 9 u − 30 ∗ 11 ( l 15 k 9 t 11 ) = . . . = 1 {\displaystyle {\frac {u^{3*3}u^{-13*3}}{u^{-30}}}\;({\frac {a^{3}l^{3}}{t}})={\frac {u^{-13*15}}{u^{15*9}u^{-30*11}}}\;({\frac {l^{15}}{k^{9}t^{11}}})=\;...\;=1}

This means that once any 2 scalars have been assigned values, the other scalars are then defined by default, consequently the CODATA 2014 values are used here as only 2 constants (c, μ0) are assigned exact values, following the 2019 redefinition of SI base units 4 constants have been independently assigned exact values which is problematic in terms of this model.

Scalars r (θ = 8) and v (θ = 17) are chosen as they can be derived directly from the 2 constants with exact values; c and μ0.

v = c 2 π Ω 2 = 11843707.905... , u n i t s = m s {\displaystyle v={\frac {c}{2\pi \Omega ^{2}}}=11843707.905...,\;units={\frac {m}{s}}}

r 7 = 2 11 π 5 Ω 4 μ 0 α ; r = 0.712562514304... , u n i t s = ( k g . m s ) 1 / 4 {\displaystyle r^{7}={\frac {2^{11}\pi ^{5}\Omega ^{4}\mu _{0}}{\alpha }};\;r=0.712562514304...,\;units=({\frac {kg.m}{s}})^{1/4}}

Table 6. Geometrical objects  attribute  | geometrical object  | unit number θ  | scalar r(8), v(17)

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mass  |  M = ( 1 ) {\displaystyle M=(1)} | 15 = 8*4-17  |  k = r 4 v {\displaystyle k={\frac {r^{4}}{v}}}
time  |  T = ( π ) {\displaystyle T=(\pi )} | -30 = 8*9-17*6  |  t = r 9 v 6 {\displaystyle t={\frac {r^{9}}{v^{6}}}}
velocity  |  V = ( 2 π Ω 2 ) {\displaystyle V=(2\pi \Omega ^{2})} | 17  | v
length  |  L = ( 2 π 2 Ω 2 ) {\displaystyle L=(2\pi ^{2}\Omega ^{2})} | -13 = 8*9-17*5  |  l = r 9 v 5 {\displaystyle l={\frac {r^{9}}{v^{5}}}}
ampere  |  A = ( 2 7 π 3 Ω 3 α ) {\displaystyle A=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})} | 3 = 17*3-8*6  |  a = v 3 r 6 {\displaystyle a={\frac {v^{3}}{r^{6}}}}

Table 7. Comparison; SI and θ  constant  | θ (SI unit)  | MLTVA  | scalar r(8), v(17)

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c |  m s {\displaystyle {\frac {m}{s}}} (-13+30 = 17)  | c* =  V ∗ v {\displaystyle V*v} | 17
h |  k g m 2 s {\displaystyle {\frac {kg\;m^{2}}{s}}} (15-26+30=19)  | h* =  2 π M V L ∗ r 13 v 5 {\displaystyle 2\pi MVL*{\frac {r^{13}}{v^{5}}}} | 8*13-17*5=19
G |  m 3 k g s 2 {\displaystyle {\frac {m^{3}}{kg\;s^{2}}}} (-39-15+60=6)  | G* =  V 2 L M ∗ r 5 v 2 {\displaystyle {\frac {V^{2}L}{M}}*{\frac {r^{5}}{v^{2}}}} | 8*5-17*2=6
e |  C = A s {\displaystyle C=As} (3-30=-27)  | e* =  A T ∗ r 3 v 3 {\displaystyle AT*{\frac {r^{3}}{v^{3}}}} | 8*3-17*3=-27
kB |  k g m 2 s 2 K {\displaystyle {\frac {kg\;m^{2}}{s^{2}\;K}}} (15-26+60-20=29)  | kB* =  2 π V M A ∗ r 10 v 3 {\displaystyle {\frac {2\pi VM}{A}}*{\frac {r^{10}}{v^{3}}}} | 8*10-17*3=29
μ0 |  k g m s 2 A 2 {\displaystyle {\frac {kg\;m}{s^{2}\;A^{2}}}} (15-13+60-6=56)  | μ0* =  4 π V 2 M α L A 2 ∗ r 7 {\displaystyle {\frac {4\pi V^{2}M}{\alpha LA^{2}}}*r^{7}} | 8*7=56

#### Fine structure constant

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The fine structure constant can be derived from this formula (units and scalars cancel).

2 ( h ∗ ) ( μ 0 ∗ ) ( e ∗ ) 2 ( c ∗ ) = 2 ( 2 3 π 4 Ω 4 ) / ( α 2 11 π 5 Ω 4 ) ( 2 7 π 4 Ω 3 α ) 2 ( 2 π Ω 2 ) = α {\displaystyle {\frac {2(h^{*})}{(\mu _{0}^{*})(e^{*})^{2}(c^{*})}}=2({2^{3}\pi ^{4}\Omega ^{4}})/({\frac {\alpha }{2^{11}\pi ^{5}\Omega ^{4}}})({\frac {2^{7}\pi ^{4}\Omega ^{3}}{\alpha }})^{2}(2\pi \Omega ^{2})=\color {red}\alpha \color {black}}

u n i t s u 19 u 56 ( u − 27 ) 2 u 17 = 1 {\displaystyle units\;{\frac {u^{19}}{u^{56}(u^{-27})^{2}u^{17}}}=1}

s c a l a r s ( r 13 v 5 ) ( 1 r 7 ) ( v 6 r 6 ) ( 1 v ) = 1 {\displaystyle scalars\;({\frac {r^{13}}{v^{5}}})({\frac {1}{r^{7}}})({\frac {v^{6}}{r^{6}}})({\frac {1}{v}})=1}

#### Electron formula

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Main resource: Electron (mathematical)

The electron object (formula ψ) is a mathematical particle (units and scalars cancel).

ψ = 4 π 2 ( 2 6 3 π 2 α Ω 5 ) 3 = .23895453 . . . x 10 23 {\displaystyle \psi =4\pi ^{2}(2^{6}3\pi ^{2}\alpha \Omega ^{5})^{3}=.23895453...x10^{23}} units = 1

In this example, embedded within the electron are the objects for charge, length and time ALT. AL as an ampere-meter (ampere-length) are the units for a  magnetic monopole.

T = π r 9 v 6 , u − 30 {\displaystyle T=\pi {\frac {r^{9}}{v^{6}}},\;u^{-30}}

σ e = 3 α 2 A L 2 π 2 = 2 7 3 π 3 α Ω 5 r 3 v 2 , u − 10 {\displaystyle \sigma _{e}={\frac {3\alpha ^{2}AL}{2\pi ^{2}}}={2^{7}3\pi ^{3}\alpha \Omega ^{5}}{\frac {r^{3}}{v^{2}}},\;u^{-10}}

ψ = σ e 3 2 T = ( 2 7 3 π 3 α Ω 5 ) 3 2 π , u n i t s = ( u − 10 ) 3 u − 30 = 1 , s c a l a r s = ( r 3 v 2 ) 3 v 6 r 9 = 1 {\displaystyle \psi ={\frac {\sigma _{e}^{3}}{2T}}={\frac {(2^{7}3\pi ^{3}\alpha \Omega ^{5})^{3}}{2\pi }},\;units={\frac {(u^{-10})^{3}}{u^{-30}}}=1,scalars=({\frac {r^{3}}{v^{2}}})^{3}{\frac {v^{6}}{r^{9}}}=1}

Associated with the electron are dimensioned parameters, these parameters however are a function of the MLTA units, the formula ψ dictating the frequency of these units. By setting MLTA to their SI Planck unit equivalents (Table 6.);

electron mass m e ∗ = M ψ {\displaystyle m_{e}^{*}={\frac {M}{\psi }}} (M =  Planck mass =  r 4 v ) {\displaystyle {\frac {r^{4}}{v}})} = 0.910 938 232 11 e-30

electron wavelength λ e ∗ = 2 π L ψ {\displaystyle \lambda _{e}^{*}=2\pi L\psi } (L =  Planck length =  2 π Ω 2 r 9 v 5 ) {\displaystyle 2\pi \Omega ^{2}{\frac {r^{9}}{v^{5}}})} = 0.242 631 023 86 e-11

elementary charge e ∗ = A T {\displaystyle e^{*}=A\;T} (T =  Planck time) =  2 7 π 4 Ω 3 α r 3 v 3 {\displaystyle {\frac {2^{7}\pi ^{4}\Omega ^{3}}{\alpha }}{\frac {r^{3}}{v^{3}}}} = 0.160 217 651 30 e-18

Rydberg constant R ∗ = ( m e 4 π L α 2 M ) = 1 2 23 3 3 π 11 α 5 Ω 17 v 5 r 9 u 13 {\displaystyle R^{*}=({\frac {m_{e}}{4\pi L\alpha ^{2}M}})={\frac {1}{2^{23}3^{3}\pi ^{11}\alpha ^{5}\Omega ^{17}}}{\frac {v^{5}}{r^{9}}}\;u^{13}} = 10 973 731.568 508

#### Omega

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The most precise of the experimentally measured constants is the  Rydberg constant R = 10973731.568508(65) 1/m. Here c (exact),  Vacuum permeability μ0 = 4π/10^7 (exact) and R (12-13 digits) are combined into a unit-less ratio;

μ 0 ∗ = 4 π V 2 M α L A 2 = α 2 11 π 5 Ω 4 r 7 , u 56 {\displaystyle \mu _{0}^{*}={\frac {4\pi V^{2}M}{\alpha LA^{2}}}={\frac {\alpha }{2^{11}\pi ^{5}\Omega ^{4}}}r^{7},\;u^{56}}

R ∗ = ( m e 4 π L α 2 M ) = 1 2 23 3 3 π 11 α 5 Ω 17 v 5 r 9 , u 13 {\displaystyle R^{*}=({\frac {m_{e}}{4\pi L\alpha ^{2}M}})={\frac {1}{2^{23}3^{3}\pi ^{11}\alpha ^{5}\Omega ^{17}}}{\frac {v^{5}}{r^{9}}},\;u^{13}}

( c ∗ ) 35 ( μ 0 ∗ ) 9 ( R ∗ ) 7 = ( 2 π Ω 2 ) 35 / ( α 2 11 π 5 Ω 4 ) 9 . ( 1 2 23 3 3 π 11 α 5 Ω 17 ) 7 , u n i t s = ( u 17 ) 35 ( u 56 ) 9 ( u 13 ) 7 {\displaystyle {\frac {(c^{*})^{35}}{(\mu _{0}^{*})^{9}(R^{*})^{7}}}=(2\pi \Omega ^{2})^{35}/({\frac {\alpha }{2^{11}\pi ^{5}\Omega ^{4}}})^{9}.({\frac {1}{2^{23}3^{3}\pi ^{11}\alpha ^{5}\Omega ^{17}}})^{7},\;units={\frac {(u^{17})^{35}}{(u^{56})^{9}(u^{13})^{7}}}}

( c ∗ ) 35 ( μ 0 ∗ ) 9 ( R ∗ ) 7 = 2 295 π 157 3 21 α 26 ( Ω 15 ) 15 {\displaystyle {\frac {(c^{*})^{35}}{(\mu _{0}^{*})^{9}(R^{*})^{7}}}=2^{295}\pi ^{157}3^{21}\alpha ^{26}(\Omega ^{15})^{15}} , units = 1

We can now define Ω using the geometries for (c*, μ0*, R*) and then solve by replacing (c*, μ0*, R*) with the numerical (c, μ0, R).

Ω 225 = ( c ∗ ) 35 2 295 3 21 π 157 ( μ 0 ∗ ) 9 ( R ∗ ) 7 α 26 , u n i t s = 1 {\displaystyle \Omega ^{225}={\frac {(c^{*})^{35}}{2^{295}3^{21}\pi ^{157}(\mu _{0}^{*})^{9}(R^{*})^{7}\alpha ^{26}}},\;units=1}

Ω = 2.007 134 949 636... , u n i t s = 1 {\displaystyle \Omega =2.007\;134\;949\;636...,\;units=1} (CODATA 2014 mean values)

Ω = 2.007 134 949 687... , u n i t s = 1 {\displaystyle \Omega =2.007\;134\;949\;687...,\;units=1} (CODATA 2018 mean values)

There is a close natural number for Ω that is a square root implying that Ω can have a plus or a minus solution, and this agrees with theory (in the mass domain Ω occurs as Ω2 = plus only, in the charge domain Ω occurs as Ω3 = can be plus or minus; see  sqrt(momentum)). This solution would however re-classify Omega as a mathematical constant (as being derivable from other mathematical constants).

Ω = ( π e e ( 1 − e ) ) = 2.007 134 9543... {\displaystyle \Omega ={\sqrt {\left(\pi ^{e}e^{(1-e)}\right)}}=2.007\;134\;9543...}

Using this Omega and reversing the above formula solves α = 137.035996376

We may also consider  Euler's_formula where i is the  imaginary unit.

e i x = cos ⁡ x + i sin ⁡ x {\displaystyle e^{ix}=\cos x+i\sin x}

Adding i

( i π e e ( 1 − e ) ) {\displaystyle {\sqrt {\left(i\pi ^{e}e^{(1-e)}\right)}}}

Solves to 1.4192587369597 + 1.4192587369597i.

#### Dimensionless combinations

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Reference List of dimensionless combinations. These can be solved using only α, Ω (and the mathematical constants 2, 3, π) as the units and scalars have cancelled. The precision of the results depends on the precision of the SI constants; combinations with G and kB return the least precise values. These combinations can be used to test the veracity of the MLTA geometries as natural Planck units. See also Anomalies (below).

Example

( h ∗ ) 3 ( e ∗ ) 13 ( c ∗ ) 24 = ( 2 3 π 4 Ω 4 r 13 v 5 ) 3 / ( 2 7 π 4 Ω 3 r 3 α v 3 ) 7 . ( 2 π Ω 2 v ) 24 = α 13 2 106 π 64 ( Ω 15 ) 5 = {\displaystyle {\frac {(h^{*})^{3}}{(e^{*})^{13}(c^{*})^{24}}}=(2^{3}\pi ^{4}\Omega ^{4}{\frac {r^{13}}{v^{5}}})^{3}/({\frac {2^{7}\pi ^{4}\Omega ^{3}r^{3}}{\alpha v^{3}}})^{7}.(2\pi \Omega ^{2}v)^{24}={\frac {\alpha ^{13}}{2^{106}\pi ^{64}(\color {red}\Omega ^{15})^{5}\color {black}}}=} 0.228 473 759... 10-58

Note: the geometry

{\displaystyle \color {red}(\Omega ^{15})^{n}\color {black}}

(integer n ≥ 0) is common to all ratios where units and scalars cancel, suggesting a geometrical base-15.

Table 8. Dimensionless combinations  CODATA 2014 mean  | (α, Ω) mean  | units = 1  | scalars = 1

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k B e c h = {\displaystyle {\frac {k_{B}ec}{h}}=} 1.000 8254 |  ( k B ∗ ) ( e ∗ ) ( c ∗ ) ( h ∗ ) {\displaystyle {\frac {(k_{B}^{*})(e^{*})(c^{*})}{(h^{*})}}} = 1.0 |  ( u 29 ) ( u − 27 ) ( u 17 ) ( u 19 ) = 1 {\displaystyle {\frac {(u^{29})(u^{-27})(u^{17})}{(u^{19})}}=1} |  ( r 10 v 3 ) ( r 3 v 3 ) ( v ) / ( r 13 v 5 ) = 1 {\displaystyle ({\frac {r^{10}}{v^{3}}})({\frac {r^{3}}{v^{3}}})(v)/({\frac {r^{13}}{v^{5}}})=1}
h 3 e 13 c 24 = {\displaystyle {\frac {h^{3}}{e^{13}c^{24}}}=} 0.228 473 639... 10-58 |  ( h ∗ ) 3 ( e ∗ ) 13 ( c ∗ ) 24 = α 13 2 106 π 64 ( Ω 15 ) 5 = {\displaystyle {\frac {(h^{*})^{3}}{(e^{*})^{13}(c^{*})^{24}}}={\frac {\alpha ^{13}}{2^{106}\pi ^{64}(\color {red}\Omega ^{15})^{5}\color {black}}}=} 0.228 473 759... 10-58 |  ( u 19 ) 3 ( u − 27 ) 13 ( u 17 ) 24 = 1 {\displaystyle {\frac {(u^{19})^{3}}{(u^{-27})^{13}(u^{17})^{24}}}=1} |  ( r 13 v 5 ) 3 / ( r 3 v 3 ) 13 ( v 24 ) = 1 {\displaystyle ({\frac {r^{13}}{v^{5}}})^{3}/({\frac {r^{3}}{v^{3}}})^{13}(v^{24})=1}
c 35 μ 0 9 R 7 = {\displaystyle {\frac {c^{35}}{\mu _{0}^{9}R^{7}}}=} 0.326 103 528 6170... 10301 |  ( c ∗ ) 35 ( μ 0 ∗ ) 9 ( R ∗ ) 7 = 2 295 π 157 3 21 α 26 ( Ω 15 ) 15 = {\displaystyle {\frac {(c^{*})^{35}}{(\mu _{0}^{*})^{9}(R^{*})^{7}}}=2^{295}\pi ^{157}3^{21}\alpha ^{26}\color {red}(\Omega ^{15})^{15}\color {black}=} 0.326 103 528 6170... 10301 |  ( u 17 ) 35 ( u 56 ) 9 ( u 13 ) 7 = 1 {\displaystyle {\frac {(u^{17})^{35}}{(u^{56})^{9}(u^{13})^{7}}}=1} |  ( v 35 ) / ( r 7 ) 9 ( v 5 r 9 ) 7 = 1 {\displaystyle (v^{35})/(r^{7})^{9}({\frac {v^{5}}{r^{9}}})^{7}=1}
c 9 e 4 m e 3 = {\displaystyle {\frac {c^{9}e^{4}}{m_{e}^{3}}}=} 0.170 514 342... 1092 |  ( c ∗ ) 9 ( e ∗ ) 4 ( m e ∗ ) 3 = 2 97 π 49 3 9 α 5 ( Ω 15 ) 5 = {\displaystyle {\frac {(c^{*})^{9}(e^{*})^{4}}{(m_{e}^{*})^{3}}}=2^{97}\pi ^{49}3^{9}\alpha ^{5}(\color {red}\Omega ^{15})^{5}\color {black}=} 0.170 514 368... 1092 |  ( u 29 ) ( u − 27 ) ( u 17 ) ( u 19 ) = 1 {\displaystyle {\frac {(u^{29})(u^{-27})(u^{17})}{(u^{19})}}=1} |  ( v 9 ) ( r 3 v 3 ) 4 / ( r 4 v ) 3 = 1 {\displaystyle (v^{9})({\frac {r^{3}}{v^{3}}})^{4}/({\frac {r^{4}}{v}})^{3}=1}
k B e 2 m e c 4 = {\displaystyle {\frac {k_{B}}{e^{2}m_{e}c^{4}}}=} 73 095 507 858. |  ( k B ∗ ) ( e ∗ ) 2 ( m e ∗ ) ( c ∗ ) 4 = 3 3 α 6 2 3 π 5 = {\displaystyle {\frac {(k_{B}^{*})}{(e^{*})^{2}(m_{e}^{*})(c^{*})^{4}}}={\frac {3^{3}\alpha ^{6}}{2^{3}\pi ^{5}}}=} 73 035 235 897. |  ( u 29 ) ( u − 27 ) 2 ( u 15 ) ( u 17 ) 4 = 1 {\displaystyle {\frac {(u^{29})}{(u^{-27})^{2}(u^{15})(u^{17})^{4}}}=1} |  ( r 10 v 3 ) / ( r 3 v 3 ) 2 ( r 4 v ) ( v ) 4 = 1 {\displaystyle ({\frac {r^{10}}{v^{3}}})/({\frac {r^{3}}{v^{3}}})^{2}({\frac {r^{4}}{v}})(v)^{4}=1}
h c 2 e m p G 2 k B = {\displaystyle {\frac {hc^{2}em_{p}}{G^{2}k_{B}}}=} 3.376 716 |  ( h ∗ ) ( c ∗ ) 2 ( e ∗ ) ( m p ∗ ) ( G ∗ ) 2 ( k B ∗ ) = 2 11 π 3 α 2 = {\displaystyle {\frac {(h^{*})(c^{*})^{2}(e^{*})(m_{p}^{*})}{(G^{*})^{2}(k_{B}^{*})}}={\frac {2^{11}\pi ^{3}}{\alpha ^{2}}}=} 3.381 506 |  ( u 19 ) ( u 17 ) 2 ( u − 27 ) ( u 15 ) ( u 6 ) 2 ( u 29 ) = 1 {\displaystyle {\frac {(u^{19})(u^{17})^{2}(u^{-27})(u^{15})}{(u^{6})^{2}(u^{29})}}=1} |  ( r 13 v 5 ) v 2 ( r 3 v 3 ) ( r 4 v 1 ) / ( r 5 v 2 ) 2 ( r 10 v 3 ) = 1 {\displaystyle ({\frac {r^{13}}{v^{5}}})v^{2}({\frac {r^{3}}{v^{3}}})({\frac {r^{4}}{v^{1}}})/({\frac {r^{5}}{v^{2}}})^{2}({\frac {r^{10}}{v^{3}}})=1}

#### Table of Constants

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We can construct a table of constants using these 3 geometries. Setting

f ( x ) u n i t s = ( L 15 M 9 T 11 ) n = 1 {\displaystyle f(x)\;units=({\frac {L^{15}}{M^{9}T^{11}}})^{n}=1}

i.e.: unit number θ = (-13*15) - (15*9) - (-30*11) = 0

i = π 2 Ω 15 {\displaystyle \color {red}i\color {black}=\pi ^{2}\Omega ^{15}} , units =  f ( x ) {\displaystyle {\sqrt {f(x)}}} = 1 (unit number = 0, no scalars)

x = Ω v r 2 {\displaystyle \color {red}x\color {black}=\Omega {\frac {v}{r^{2}}}} , units =  L M T {\displaystyle {\sqrt {\frac {L}{MT}}}} = u1 = u (unit number = -13 -15 +30 = 2/2 = 1, with scalars v, r)

y = π r 17 v 8 {\displaystyle \color {red}y\color {black}=\pi {\frac {r^{17}}{v^{8}}}} , units =  M 2 T {\displaystyle M^{2}T} = 1, (unit number = 15*2 -30 = 0, with scalars v, r)

Note: The following suggests a numerical boundary to the values the SI constants can have.

v r 2 = a 1 / 3 = 1 t 2 / 15 k 1 / 5 = v k {\displaystyle {\frac {v}{r^{2}}}=a^{1/3}={\frac {1}{t^{2/15}k^{1/5}}}={\frac {\sqrt {v}}{\sqrt {k}}}} ... = 23326079.1...; unit = u

r 17 v 8 = k 2 t = k 17 / 4 v 15 / 4 = . . . {\displaystyle {\frac {r^{17}}{v^{8}}}=k^{2}t={\frac {k^{17/4}}{v^{15/4}}}=...} gives a range from 0.812997... x10-59 to 0.123... x1060

Note: Influence of  f ( x ) {\displaystyle f(x)} , units = 1

r 17 v 8 u n i t s ( M 2 L 8 T 7 ) ( T L ) 8 = M 2 T {\displaystyle {\frac {r^{17}}{v^{8}}}\;\;units\;({\frac {M^{2}L^{8}}{T^{7}}})({\frac {T}{L}})^{8}=M^{2}T}

r 17 u n i t s ( M L T ) 17 / 4 f x 1 / 4 = M 2 L 8 T 7 {\displaystyle r^{17}\;\;units\;({\frac {M\;L}{T}})^{17/4}fx^{1/4}={\frac {M^{2}\;L^{8}}{T^{7}}}}

r u n i t s ( M L T ) 1 / 4 f x 1 / 4 = L 4 M 2 T 3 {\displaystyle r\;\;units\;({\frac {M\;L}{T}})^{1/4}fx^{1/4}={\frac {L^{4}}{M^{2}T^{3}}}}

Table 9. Table of Constants  Constant  | θ  | Geometrical object (α, Ω, v, r)  | Unit  | Calculated  | CODATA 2014

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Time (Planck)  |  − 30 {\displaystyle \color {red}-30\color {black}} |  T = x θ i 2 y 3 = π r 9 v 6 {\displaystyle T=\color {red}{\frac {x^{\theta }i^{2}}{y^{3}}}\color {black}={\frac {\pi r^{9}}{v^{6}}}} |  T {\displaystyle T} | T = 5.390 517 866 e-44  | tp = 5.391 247(60) e-44
Elementary charge |  − 27 {\displaystyle \color {red}-27\color {black}} |  e ∗ = ( 2 7 π 3 α ) x θ i 2 y 3 = ( 2 7 π 3 α ) π Ω 3 r 3 v 3 {\displaystyle e^{*}=({\frac {2^{7}\pi ^{3}}{\alpha }})\color {red}{\frac {x^{\theta }i^{2}}{y^{3}}}\color {black}=({\frac {2^{7}\pi ^{3}}{\alpha }})\;{\frac {\pi \Omega ^{3}r^{3}}{v^{3}}}} |  L 3 / 2 T 1 / 2 M 3 / 2 = A T {\displaystyle {\frac {L^{3/2}}{T^{1/2}M^{3/2}}}=AT} | e* = 1.602 176 511 30 e-19  | e = 1.602 176 620 8(98) e-19
Length (Planck)  |  − 13 {\displaystyle \color {red}-13\color {black}} |  L = ( 2 π ) x θ i y = ( 2 π ) π Ω 2 r 9 v 5 {\displaystyle L=(2\pi )\color {red}{\frac {x^{\theta }i}{y}}\color {black}=(2\pi )\;{\frac {\pi \Omega ^{2}r^{9}}{v^{5}}}} |  L {\displaystyle L} | L = 0.161 603 660 096 e-34  | lp = 0.161 622 9(38) e-34
Ampere  |  3 {\displaystyle \color {red}3\color {black}} |  A = ( 2 7 π 3 α ) x θ = ( 2 7 π 3 α ) Ω 3 v 3 r 6 {\displaystyle A=({\frac {2^{7}\pi ^{3}}{\alpha }})\color {red}x^{\theta }\color {black}=({\frac {2^{7}\pi ^{3}}{\alpha }})\;{\frac {\Omega ^{3}v^{3}}{r^{6}}}} |  A = L 3 / 2 M 3 / 2 T 3 / 2 {\displaystyle A={\frac {L^{3/2}}{M^{3/2}T^{3/2}}}} | A = 0.297 221 e25  | e/tp = 0.297 181 e25
Gravitational constant |  6 {\displaystyle \color {red}6\color {black}} |  G ∗ = ( 2 3 π 3 ) x θ y = ( 2 3 π 3 ) π Ω 6 r 5 v 2 {\displaystyle G^{*}=(2^{3}\pi ^{3})\color {red}\color {red}x^{\theta }y\color {black}=(2^{3}\pi ^{3})\;{\frac {\pi \Omega ^{6}r^{5}}{v^{2}}}} |  L 3 M T 2 {\displaystyle {\frac {L^{3}}{MT^{2}}}} | G* = 6.672 497 192 29 e11  | G = 6.674 08(31) e-11
|  8 {\displaystyle \color {red}8\color {black}} |  X = ( 2 4 π 4 ) x θ y = ( 2 4 π 4 ) π Ω 8 r {\displaystyle X=(2^{4}\pi ^{4})\color {red}\color {red}x^{\theta }y\color {black}=(2^{4}\pi ^{4})\pi \Omega ^{8}r} |  L 4 M 2 T 3 {\displaystyle {\frac {L^{4}}{M^{2}T^{3}}}} | X = 918 977.554 22  |
Mass (Planck)  |  15 {\displaystyle \color {red}\color {red}15\color {black}} |  M = x θ y 2 i = r 4 v {\displaystyle M=\color {red}\color {red}{\frac {x^{\theta }y^{2}}{i}}\color {black}={\frac {r^{4}}{v}}} |  M {\displaystyle M} | M = .217 672 817 580 e-7  | mP = .217 647 0(51) e-7
sqrt(momentum) |  16 {\displaystyle \color {red}16\color {black}} |  P = x θ y 2 i = Ω r 2 {\displaystyle P=\color {red}\color {red}{\frac {x^{\theta }y^{2}}{i}}\color {black}=\Omega r^{2}} |  M 1 / 2 L 1 / 2 T 1 / 2 {\displaystyle {\frac {M^{1/2}L^{1/2}}{T^{1/2}}}} |  |
Velocity  |  17 {\displaystyle \color {red}\color {red}17\color {black}} |  V = ( 2 π ) x θ y 2 i = ( 2 π ) Ω 2 v {\displaystyle V=(2\pi )\color {red}\color {red}{\frac {x^{\theta }y^{2}}{i}}\color {black}=(2\pi )\;\Omega ^{2}v} |  V = L T {\displaystyle V={\frac {L}{T}}} | V = 299 792 458  | c = 299 792 458
Planck constant |  19 {\displaystyle \color {red}19\color {black}} |  h ∗ = ( 2 3 π 3 ) x θ y 3 i = ( 2 3 π 3 ) π Ω 4 r 13 v 5 {\displaystyle h^{*}=(2^{3}\pi ^{3})\color {red}{\frac {x^{\theta }y^{3}}{i}}\color {black}=(2^{3}\pi ^{3})\;{\frac {\pi \Omega ^{4}r^{13}}{v^{5}}}} |  L 2 M T {\displaystyle {\frac {L^{2}M}{T}}} | h* = 6.626 069 134 e-34  | h = 6.626 070 040(81) e-34
Planck temperature |  20 {\displaystyle \color {red}\color {red}20\color {black}} |  T p ∗ = ( 2 7 π 3 α ) x θ y 2 i = ( 2 7 π 3 α ) Ω 5 v 4 r 6 {\displaystyle {T_{p}}^{*}=({\frac {2^{7}\pi ^{3}}{\alpha }})\color {red}\color {red}{\frac {x^{\theta }y^{2}}{i}}\color {black}=({\frac {2^{7}\pi ^{3}}{\alpha }})\;{\frac {\Omega ^{5}v^{4}}{r^{6}}}} |  L 5 / 2 M 3 / 2 T 5 / 2 = A V {\displaystyle {\frac {L^{5/2}}{M^{3/2}T^{5/2}}}=AV} | Tp* = 1.418 145 219 e32  | Tp = 1.416 784(16) e32
Boltzmann constant |  29 {\displaystyle \color {red}\color {red}29\color {black}} |  k B ∗ = ( α 2 5 π ) x θ y 4 i 2 = ( α 2 5 π ) r 10 Ω v 3 {\displaystyle {k_{B}}^{*}=({\frac {\alpha }{2^{5}\pi }})\color {red}{\frac {x^{\theta }y^{4}}{i^{2}}}\color {black}=({\frac {\alpha }{2^{5}\pi }})\;{\frac {r^{10}}{\Omega v^{3}}}} |  M 5 / 2 T 1 / 2 L 1 / 2 = M L T A {\displaystyle {\frac {M^{5/2}T^{1/2}}{L^{1/2}}}={\frac {ML}{TA}}} | kB* = 1.379 510 147 52 e-23  | kB = 1.380 648 52(79) e-23
Vacuum permeability |  56 {\displaystyle \color {red}56\color {black}} |  μ 0 ∗ = ( α 2 11 π 4 ) x θ y 7 i 4 = ( α 2 11 π 4 ) r 7 π Ω 4 {\displaystyle {\mu _{0}}^{*}=({\frac {\alpha }{2^{11}\pi ^{4}}})\color {red}{\frac {x^{\theta }y^{7}}{i^{4}}}\color {black}=({\frac {\alpha }{2^{11}\pi ^{4}}})\;{\frac {r^{7}}{\pi \Omega ^{4}}}} |  M L T 2 A 2 {\displaystyle {\frac {M\;L}{T^{2}A^{2}}}} | μ0* = 4π/10^7  | μ0 = 4π/10^7

From the perspective of geometries

note:  ( u 15 ) n {\displaystyle \color {red}(u^{15})^{n}\color {black}} constants have no Omega term.

Table 10. Dimensioned constants; geometrical vs CODATA 2014  Constant  | In Planck units  | Geometrical object  | SI calculated (r, v, Ω, α*)  | SI CODATA 2014 [6]

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Speed of light | V  |  c ∗ = ( 2 π Ω 2 ) v , u 17 {\displaystyle c^{*}=(2\pi \Omega ^{2})v,\;u^{17}} | c* = 299 792 458, unit = u17 | c = 299 792 458 (exact)
Fine structure constant |  |  | α* = 137.035 999 139 (mean)  | α = 137.035 999 139(31)
Rydberg constant |  R ∗ = ( m e 4 π L α 2 M ) {\displaystyle R^{*}=({\frac {m_{e}}{4\pi L\alpha ^{2}M}})} |  R ∗ = 1 2 23 3 3 π 11 α 5 Ω 17 v 5 r 9 , u 13 {\displaystyle R^{*}={\frac {1}{2^{23}3^{3}\pi ^{11}\alpha ^{5}\Omega ^{17}}}{\frac {v^{5}}{r^{9}}},\;u^{13}} | R* = 10 973 731.568 508, unit = u13 | R = 10 973 731.568 508(65)
Vacuum permeability |  μ 0 ∗ = 4 π V 2 M α L A 2 {\displaystyle \mu _{0}^{*}={\frac {4\pi V^{2}M}{\alpha LA^{2}}}} |  μ 0 ∗ = α 2 11 π 5 Ω 4 r 7 , u 56 {\displaystyle \mu _{0}^{*}={\frac {\alpha }{2^{11}\pi ^{5}\Omega ^{4}}}r^{7},\;u^{56}} | μ0* = 4π/10^7, unit = u56 | μ0 = 4π/10^7 (exact)
Vacuum permittivity |  ϵ 0 ∗ = 1 μ 0 ∗ ( c ∗ ) 2 {\displaystyle \epsilon _{0}^{*}={\frac {1}{\mu _{0}^{*}(c^{*})^{2}}}} |  ϵ 0 ∗ = 2 9 π 3 α 1 r 7 v 2 , 1 / ( u 15 ) 6 = u − 90 {\displaystyle \epsilon _{0}^{*}={\frac {2^{9}\pi ^{3}}{\alpha }}{\frac {1}{r^{7}v^{2}}},\;\color {red}1/(u^{15})^{6}\color {black}=u^{-90}} |  |
Planck constant |  h ∗ = 2 π M V L {\displaystyle h^{*}=2\pi MVL} |  h ∗ = 2 3 π 4 Ω 4 r 13 v 5 , u 19 {\displaystyle h^{*}=2^{3}\pi ^{4}\Omega ^{4}{\frac {r^{13}}{v^{5}}},\;u^{19}} | h* = 6.626 069 134 e-34, unit = u19 | h = 6.626 070 040(81) e-34
Gravitational constant |  G ∗ = V 2 L M {\displaystyle G^{*}={\frac {V^{2}L}{M}}} |  G ∗ = 2 3 π 4 Ω 6 r 5 v 2 , u 6 {\displaystyle G^{*}=2^{3}\pi ^{4}\Omega ^{6}{\frac {r^{5}}{v^{2}}},\;u^{6}} | G* = 6.672 497 192 29 e11, unit = u6 | G = 6.674 08(31) e-11
Elementary charge |  e ∗ = A T {\displaystyle e^{*}=AT} |  e ∗ = 2 7 π 4 Ω 3 α r 3 v 3 , u − 27 {\displaystyle e^{*}={\frac {2^{7}\pi ^{4}\Omega ^{3}}{\alpha }}{\frac {r^{3}}{v^{3}}},\;u^{-27}} | e* = 1.602 176 511 30 e-19, unit = u-27 | e = 1.602 176 620 8(98) e-19
Boltzmann constant |  k B ∗ = 2 π V M A {\displaystyle k_{B}^{*}={\frac {2\pi VM}{A}}} |  k B ∗ = α 2 5 π Ω r 10 v 3 , u 29 {\displaystyle k_{B}^{*}={\frac {\alpha }{2^{5}\pi \Omega }}{\frac {r^{10}}{v^{3}}},\;u^{29}} | kB* = 1.379 510 147 52 e-23, unit = u29 | kB = 1.380 648 52(79) e-23
Electron mass |  |  m e ∗ = M ψ , u 15 {\displaystyle m_{e}^{*}={\frac {M}{\psi }},\;u^{15}} | me* = 9.109 382 312 56 e-31, unit = u15 | me = 9.109 383 56(11) e-31
Classical electron radius |  |  λ e ∗ = 2 π L ψ , u − 13 {\displaystyle \lambda _{e}^{*}=2\pi L\psi ,\;u^{-13}} | λe* = 2.426 310 2366 e-12, unit = u-13 | λe = 2.426 310 236 7(11) e-12
Planck temperature |  T p ∗ = A V π {\displaystyle T_{p}^{*}={\frac {AV}{\pi }}} |  T p ∗ = 2 7 π 3 Ω 5 α v 4 r 6 , u 20 {\displaystyle T_{p}^{*}={\frac {2^{7}\pi ^{3}\Omega ^{5}}{\alpha }}{\frac {v^{4}}{r^{6}}},\;u^{20}} | Tp* = 1.418 145 219 e32, unit = u20 | Tp = 1.416 784(16) e32
Planck mass | M  |  m P ∗ = ( 1 ) r 4 v , ( u 15 ) 1 {\displaystyle m_{P}^{*}=(1){\frac {r^{4}}{v}},\;\color {red}\color {red}(u^{15})^{1}\color {black}} | mP* = .217 672 817 580 e-7, unit = u15 | mP = .217 647 0(51) e-7
Planck length | L  |  l p ∗ = ( 2 π 2 Ω 2 ) r 9 v 5 , u − 13 {\displaystyle l_{p}^{*}=(2\pi ^{2}\Omega ^{2}){\frac {r^{9}}{v^{5}}},\;u^{-13}} | lp* = .161 603 660 096 e-34, unit = u-13 | lp = .161 622 9(38) e-34
Planck time | T  |  t p ∗ = ( π ) r 9 v 6 , 1 / ( u 15 ) 2 {\displaystyle t_{p}^{*}=(\pi ){\frac {r^{9}}{v^{6}}},\;\color {red}\color {red}1/(u^{15})^{2}\color {black}} | tp* = 5.390 517 866 e-44, unit = u-30 | tp = 5.391 247(60) e-44
Ampere |  A = 16 V 3 α P 3 {\displaystyle A={\frac {16V^{3}}{\alpha P^{3}}}} |  A ∗ = 2 7 π 3 Ω 3 α v 3 r 6 , u 3 {\displaystyle A^{*}={\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }}{\frac {v^{3}}{r^{6}}},\;u^{3}} | A* = 0.297 221 e25, unit = u3 | e/tp = 0.297 181 e25
Von Klitzing constant  |  R K ∗ = ( h e 2 ) ∗ {\displaystyle R_{K}^{*}=({\frac {h}{e^{2}}})^{*}} |  R K ∗ = α 2 2 11 π 4 Ω 2 r 7 v , u 73 {\displaystyle R_{K}^{*}={\frac {\alpha ^{2}}{2^{11}\pi ^{4}\Omega ^{2}}}r^{7}v,\;u^{73}} | RK* = 25812.807 455 59, unit = u73 | RK = 25812.807 455 5(59)
Gyromagnetic ratio |  |  γ e / 2 π = g l p ∗ m P ∗ 2 k B ∗ m e ∗ , u n i t = u − 42 {\displaystyle \gamma _{e}/2\pi ={\frac {gl_{p}^{*}m_{P}^{*}}{2k_{B}^{*}m_{e}^{*}}},\;unit=u^{-42}} | γe/2π* = 28024.953 55, unit = u-42 | γe/2π = 28024.951 64(17)

Note that r, v, Ω, α are dimensionless numbers, however when we replace uθ with the SI unit equivalents (u15 → kg, u-13 → m, u-30 → s, ...), the geometrical objects (i.e.: c* = 2πΩ2v = 299792458, units = u17) become indistinguishable from their respective physical constants (i.e.: c = 299792458, units = m/s).

#### 2019 SI unit revision

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Following the 26th General Conference on Weights and Measures (2019 redefinition of SI base units) are fixed the numerical values of the 4 physical constants (h, c, e, kB). In the context of this model however only 2 base units may be assigned by committee as the rest are then numerically fixed by default and so the revision may lead to unintended consequences.

Table 11. Physical constants  Constant  | CODATA 2018 [7]

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Speed of light | c = 299 792 458 (exact)
Planck constant | h = 6.626 070 15 e-34 (exact)
Elementary charge | e = 1.602 176 634 e-19 (exact)
Boltzmann constant | kB = 1.380 649 e-23 (exact)
Fine structure constant | α = 137.035 999 084(21)
Rydberg constant | R = 10973 731.568 160(21)
Electron mass | me = 9.109 383 7015(28) e-31
Vacuum permeability | μ0 = 1.256 637 062 12(19) e-6
Von Klitzing constant | RK = 25812.807 45 (exact)

For example, if we solve using the above formulas;

R ∗ = 4 π 5 3 3 c 4 α 8 e 3 = 10973 729.082 465 {\displaystyle R^{*}={\frac {4\pi ^{5}}{3^{3}c^{4}\alpha ^{8}e^{3}}}=10973\;729.082\;465}

( m e ∗ ) 3 = 2 4 π 10 R μ 0 3 3 6 c 8 α 7 , m e ∗ = 9.109 382 3259 10 − 31 {\displaystyle {(m_{e}^{*})}^{3}={\frac {2^{4}\pi ^{10}R\mu _{0}^{3}}{3^{6}c^{8}\alpha ^{7}}},\;m_{e}^{*}=9.109\;382\;3259\;10^{-31}}

( μ 0 ∗ ) 3 = 3 6 h 3 c 5 α 13 R 2 2 π 10 , μ 0 ∗ = 1.256 637 251 88 10 − 6 {\displaystyle {(\mu _{0}^{*})}^{3}={\frac {3^{6}h^{3}c^{5}\alpha ^{13}R^{2}}{2\pi ^{10}}},\;\mu _{0}^{*}=1.256\;637\;251\;88\;10^{-6}}

( h ∗ ) 3 = 2 π 10 μ 0 3 3 6 c 5 α 13 R 2 , h ∗ = 6.626 069 149 10 − 34 {\displaystyle {(h^{*})}^{3}={\frac {2\pi ^{10}\mu _{0}^{3}}{3^{6}c^{5}\alpha ^{13}R^{2}}},\;h^{*}=6.626\;069\;149\;10^{-34}}

( e ∗ ) 3 = 4 π 5 3 3 c 4 α 8 R , e ∗ = 1.602 176 513 10 − 19 {\displaystyle {(e^{*})}^{3}={\frac {4\pi ^{5}}{3^{3}c^{4}\alpha ^{8}R}},\;e^{*}=1.602\;176\;513\;10^{-19}}

### Physical constant anomalies

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#### Probability analysis using AI

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Main resource: Physical_constant_(anomaly)

The geometries for the Planck units MLTA can be subject to statistical analysis, and for this AI has the potential to contribute. This is because of anomalies to the physical constants which can best be explained by this geometrical model[8]. These anomalies are listed in detail on this site; https://en.wikiversity.org/wiki/Physical_constant_(anomaly).

Below are answers to a seed question written with Deepseek [9] that uses these anomalies to determine the probability that the electron is a mathematical (not physical) particle, and so by extension that this is a mathematical universe.

Table 11. Table of Probabilities (05.2025)  AI program  | unit number relation  | Planck units as geometrical objects  | underlying base 15 geometry  | mathematical electron  | Comment

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Chat GPT [10] | Accidental occurrence: ~1.6%  | Accidental occurrence: ~0.0004%  | Accidental occurrence: ~0  | Accidental occurrence: ~0.026%  | Taken at face value each sub-claim is vanishingly unlikely to be a “random accident,” so from this internal consistency alone one would assign essentially unity confidence that some deep mathematical structure is at work. Caveat: this “integer-coincidence” probability model is only as good as the assumption that each exponent match is an independent uniform pick in [–30…+30]. But even under that very conservative assumption, the combined odds against pure chance exceed 1 in 10²⁶.
Qwen [11] | probability 98%  | probability 95%  | probability 90%  | probability 94%  | The model’s strict geometrical constraints, flawless unit consistency, and agreement with CODATA strongly suggest non-random validity. Its potential as a simulation hypothesis framework stems from its finite, computable base-15 structure.
Claude 3.7 Sonnet [12][13] | probability 90-95%  | probability 85-95%  | probability 92-97%  | probability 80-90%  | From a Kolmogorov complexity perspective, the model represents a potentially minimal description of physical reality using mathematical objects. If the electron, proton, and neutron are all mathematical particles, then the universe at the Planck scale could indeed be described as a mathematical universe. The high degree of constraint and mathematical elegance in the model, combined with its apparent ability to accurately produce physical constants, suggests a non-random structure to physical reality that is captured by this mathematical framework.
Grok 3 [14][15] | probability: 95%  | probability: 90%  | probability: 85%  | probability: 80%  | Strict constraints and mathematical nature (Kolmogorov complexity: simpler model = more likely programmed) suggest support, but not proof. If particles are mathematical, the universe may be too.
Deepseek [16] | probability: 99%  | probability: 95%  | probability: 90%  | probability: 85%  | The model's rigid constraints and predictive accuracy make it statistically improbable to arise by chance. Geometrical base-15 and dimensionless particles strongly suggest a mathematical universe, aligning with speculative simulation hypothesis.

#### List of anomalies

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###### mP, lp, tp

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In this ratio, the MLT units and klt scalars both cancel; units = scalars = 1, reverting to the base MLT objects. Setting the scalars klt for SI Planck units;

k = 0.217 672 817 580... x 10-7kg

l = 0.203 220 869 487... x 10-36m

t = 0.171 585 512 841... x 10-43s

L 15 M 9 T 11 = ( 2 π 2 Ω 2 ) 15 ( 1 ) 9 ( π ) 11 ( l 15 k 9 t 11 ) = l p 15 m P 9 t p 11 {\displaystyle {\frac {L^{15}}{M^{9}T^{11}}}={\frac {(2\pi ^{2}\Omega ^{2})^{15}}{(1)^{9}(\pi )^{11}}}({\frac {l^{15}}{k^{9}t^{11}}})={\frac {l_{p}^{15}}{m_{P}^{9}t_{p}^{11}}}} (CODATA 2018 mean)

The klt scalars cancel, leaving;

L 15 M 9 T 11 = ( 2 π 2 Ω 2 ) 15 ( 1 ) 9 ( π ) 11 ( l 15 k 9 t 11 ) = 2 15 π 19 ( Ω 15 ) 2 = {\displaystyle {\frac {L^{15}}{M^{9}T^{11}}}={\frac {(2\pi ^{2}\Omega ^{2})^{15}}{(1)^{9}(\pi )^{11}}}({\frac {l^{15}}{k^{9}t^{11}}})=2^{15}\pi ^{19}\color {red}(\Omega ^{15})^{2}\color {black}=} 0.109 293... 1024 ,  ( l 15 k 9 t 11 ) = 1 , u − 13 ∗ 15 u 15 ∗ 9 u − 30 ∗ 11 = 1 {\displaystyle ({\frac {l^{15}}{k^{9}t^{11}}})=1,\;{\frac {u^{-13*15}}{u^{15*9}u^{-30*11}}}=1}

Solving for the SI units;

l p 15 m P 9 t p 11 = ( 1.616255 e − 35 ) 15 ( 2.176434 e − 8 ) 9 ( 5.391247 e − 44 ) 11 = {\displaystyle {\frac {l_{p}^{15}}{m_{P}^{9}t_{p}^{11}}}={\frac {(1.616255e-35)^{15}}{(2.176434e-8)^{9}(5.391247e-44)^{11}}}=} 0.109 485... 1024

###### A, lp, tp

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a = 0.126 918 588 592... x 1023A

A 3 L 3 T = ( 2 7 π 3 Ω 3 α ) 3 ( 2 π 2 Ω 2 ) 3 ( π ) ( a 3 l 3 t ) = 2 24 π 14 ( Ω 15 ) 1 α 3 = {\displaystyle {\frac {A^{3}L^{3}}{T}}=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})^{3}{\frac {(2\pi ^{2}\Omega ^{2})^{3}}{(\pi )}}({\frac {a^{3}l^{3}}{t}})={\frac {2^{24}\pi ^{14}\color {red}(\Omega ^{15})^{1}\color {black}}{\alpha ^{3}}}=} 0.205 571... 1013,  ( a 3 l 3 t ) = 1 , u 3 ∗ 3 u − 13 ∗ 3 u − 30 = 1 {\displaystyle ({\frac {a^{3}l^{3}}{t}})=1,\;{\frac {u^{3*3}u^{-13*3}}{u^{-30}}}=1}

( e / t p ) 3 l p 3 t p = ( 1.602176634 e − 19 / 5.391247 e − 44 ) 3 ( 1.616255 e − 35 ) 3 ( 5.391247 e − 44 ) = {\displaystyle {\frac {(e/t_{p})^{3}l_{p}^{3}}{t_{p}}}={\frac {(1.602176634e-19/5.391247e-44)^{3}(1.616255e-35)^{3}}{(5.391247e-44)}}=} 0.205 543... 1013,  u n i t s = ( C / s ) 3 m 3 s {\displaystyle units={\frac {(C/s)^{3}m^{3}}{s}}}

The Planck units are known with low precision, and so by defining the 3 most accurately known dimensioned constants in terms of these objects (c, R = Rydberg constant,  μ 0 {\displaystyle \mu _{0}} ; CODATA 2014 mean values), we can test to greater precision;

###### c, μ0, R

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( c ∗ ) 35 ( μ 0 ∗ ) 9 ( R ∗ ) 7 = ( 2 π Ω 2 v ) 35 / ( α r 7 2 11 π 5 Ω 4 ) 9 . ( v 5 2 23 3 3 π 11 α 5 Ω 17 r 9 ) 7 = 2 295 π 157 3 21 α 26 ( Ω 15 ) 15 = {\displaystyle {\frac {(c^{*})^{35}}{(\mu _{0}^{*})^{9}(R^{*})^{7}}}=(2\pi \Omega ^{2}v)^{35}/({\frac {\alpha r^{7}}{2^{11}\pi ^{5}\Omega ^{4}}})^{9}.({\frac {v^{5}}{2^{23}3^{3}\pi ^{11}\alpha ^{5}\Omega ^{17}r^{9}}})^{7}=2^{295}\pi ^{157}3^{21}\alpha ^{26}\color {red}(\Omega ^{15})^{15}\color {black}=} 0.326 103 528 6170... 10301,  ( u 17 ) 35 ( u 56 ) 9 ( u 13 ) 7 = 1 , ( v 35 ) / ( r 7 ) 9 ( v 5 r 9 ) 7 = 1 {\displaystyle {\frac {(u^{17})^{35}}{(u^{56})^{9}(u^{13})^{7}}}=1,\;(v^{35})/(r^{7})^{9}({\frac {v^{5}}{r^{9}}})^{7}=1}

c 35 μ 0 9 R 7 = ( 299792458 ) 35 ( 4 π / 10 7 ) 9 ( 10973731.568160 ) 7 = {\displaystyle {\frac {c^{35}}{\mu _{0}^{9}R^{7}}}={\frac {(299792458)^{35}}{(4\pi /10^{7})^{9}(10973731.568160)^{7}}}=} 0.326 103 528 6170... 10301,  u n i t s = m 33 A 18 s 17 k g 9 == ( u − 13 ) 33 ( u 3 ) 18 ( u − 30 ) 17 ( u 15 ) 9 = 1 {\displaystyle units={\frac {m^{33}A^{18}}{s^{17}kg^{9}}}=={\frac {(u^{-13})^{33}(u^{3})^{18}}{(u^{-30})^{17}(u^{15})^{9}}}=1}

###### c, e, kB, h

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( k B ∗ ) ( e ∗ ) ( c ∗ ) ( h ∗ ) = ( α 2 5 π Ω r 10 v 3 ) ( 2 7 π 4 Ω 3 α r 3 v 3 ) ( 2 π Ω 2 v ) / ( 2 3 π 4 Ω 4 r 13 v 5 ) {\displaystyle {\frac {(k_{B}^{*})(e^{*})(c^{*})}{(h^{*})}}=({\frac {\alpha }{2^{5}\pi \Omega }}{\frac {r^{10}}{v^{3}}})({\frac {2^{7}\pi ^{4}\Omega ^{3}}{\alpha }}{\frac {r^{3}}{v^{3}}})(2\pi \Omega ^{2}v)/(2^{3}\pi ^{4}\Omega ^{4}{\frac {r^{13}}{v^{5}}})} = 1.0,  ( u 29 ) ( u − 27 ) ( u 17 ) ( u 19 ) = 1 , ( r 10 v 3 ) ( r 3 v 3 ) ( v ) / ( r 13 v 5 ) = 1 {\displaystyle {\frac {(u^{29})(u^{-27})(u^{17})}{(u^{19})}}=1,\;({\frac {r^{10}}{v^{3}}})({\frac {r^{3}}{v^{3}}})(v)/({\frac {r^{13}}{v^{5}}})=1}

k B e c h = {\displaystyle {\frac {k_{B}ec}{h}}=} 1.000 8254,  u n i t s = m C s 2 K == ( u − 13 ) ( u − 27 ) ( u − 30 ) 2 ( u 20 ) = 1 {\displaystyle units={\frac {mC}{s^{2}K}}=={\frac {(u^{-13})(u^{-27})}{(u^{-30})^{2}(u^{20})}}=1}

###### c, h, e

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( h ∗ ) 3 ( e ∗ ) 13 ( c ∗ ) 24 = ( 2 3 π 4 Ω 4 r 13 v 5 ) 3 / ( 2 7 π 4 Ω 3 r 3 α v 3 ) 7 . ( 2 π Ω 2 v ) 24 = α 13 2 106 π 64 ( Ω 15 ) 5 = {\displaystyle {\frac {(h^{*})^{3}}{(e^{*})^{13}(c^{*})^{24}}}=(2^{3}\pi ^{4}\Omega ^{4}{\frac {r^{13}}{v^{5}}})^{3}/({\frac {2^{7}\pi ^{4}\Omega ^{3}r^{3}}{\alpha v^{3}}})^{7}.(2\pi \Omega ^{2}v)^{24}={\frac {\alpha ^{13}}{2^{106}\pi ^{64}(\color {red}\Omega ^{15})^{5}\color {black}}}=} 0.228 473 759... 10-58,  ( u 19 ) 3 ( u − 27 ) 13 ( u 17 ) 24 = 1 , ( r 13 v 5 ) 3 / ( r 3 v 3 ) 13 ( v 24 ) = 1 {\displaystyle {\frac {(u^{19})^{3}}{(u^{-27})^{13}(u^{17})^{24}}}=1,\;({\frac {r^{13}}{v^{5}}})^{3}/({\frac {r^{3}}{v^{3}}})^{13}(v^{24})=1}

h 3 e 13 c 24 = {\displaystyle {\frac {h^{3}}{e^{13}c^{24}}}=} 0.228 473 639... 10-58,  u n i t s = k g 3 s 21 m 18 C 13 == ( u 15 ) 3 ( u − 30 ) 21 ( u − 13 ) 18 ( u − 27 ) 13 = 1 {\displaystyle units={\frac {kg^{3}s^{21}}{m^{18}C^{13}}}=={\frac {(u^{15})^{3}(u^{-30})^{21}}{(u^{-13})^{18}(u^{-27})^{13}}}=1}

###### me, λe

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σ e = 3 α 2 A L 2 π 2 = 2 7 3 π 3 α Ω 5 r 3 v 2 , u − 10 {\displaystyle \sigma _{e}={\frac {3\alpha ^{2}AL}{2\pi ^{2}}}={2^{7}3\pi ^{3}\alpha \Omega ^{5}}{\frac {r^{3}}{v^{2}}},\;u^{-10}}

ψ = σ e 3 2 T = 2 20 3 3 π 8 α 3 ( Ω 15 ) , ( u − 10 ) 3 u − 30 = 1 , ( r 3 v 2 ) 3 v 6 r 9 = 1 {\displaystyle \psi ={\frac {\sigma _{e}^{3}}{2T}}=2^{20}3^{3}\pi ^{8}\alpha ^{3}(\color {red}\Omega ^{15})\color {black},\;{\frac {(u^{-10})^{3}}{u^{-30}}}=1,\;({\frac {r^{3}}{v^{2}}})^{3}{\frac {v^{6}}{r^{9}}}=1}

( m e ∗ ) = M ψ = 9.109 382 3227 10 − 31 u 15 {\displaystyle (m_{e}^{*})={\frac {M}{\psi }}=\color {blue}9.109\;382\;3227\;10^{-31}\color {black}\;u^{15}}

( m e ∗ ) = 2 3 π 5 ( h ∗ ) 3 3 α 6 ( e ∗ ) 3 ( c ∗ ) 5 = 1 2 20 π 8 3 3 α 3 ( Ω 15 ) r 4 u 15 v = 9.109 382 3227 10 − 31 u 15 {\displaystyle (m_{e}^{*})={\frac {2^{3}\pi ^{5}(h^{*})}{3^{3}\alpha ^{6}(e^{*})^{3}(c^{*})^{5}}}={\frac {1}{2^{20}\pi ^{8}3^{3}\alpha ^{3}(\color {red}\Omega ^{15})\color {black}}}{\frac {r^{4}u^{15}}{v}}=\color {blue}9.109\;382\;3227\;10^{-31}\color {black}\;u^{15}}

m e = 9.109 383 7015... 10 − 31 k g {\displaystyle m_{e}=\color {blue}9.109\;383\;7015...\;10^{-31}\color {black}\;kg}

( λ e ∗ ) = 2 π L ψ = 2.426 310 238 667 10 − 12 u − 13 {\displaystyle (\lambda _{e}^{*})=2\pi L\psi =\color {purple}2.426\;310\;238\;667\;10^{-12}\color {black}\;u^{-13}}

λ e = h m e c = 2.426 310 238 67 10 − 12 m {\displaystyle \lambda _{e}={\frac {h}{m_{e}c}}=\color {purple}2.426\;310\;238\;67\;10^{-12}\color {black}\;m}

###### c, e, me

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( m e ∗ ) = M ψ , ψ = 2 20 3 3 π 8 α 3 ( Ω 15 ) 1 {\displaystyle (m_{e}^{*})={\frac {M}{\psi }},\;\psi =2^{20}3^{3}\pi ^{8}\alpha ^{3}(\color {red}\Omega ^{15})^{1}\color {black}} , units = scalars = 1 (me formula)

( c ∗ ) 9 ( e ∗ ) 4 ( m e ∗ ) 3 = 2 97 π 49 3 9 α 5 ( Ω 15 ) 5 = {\displaystyle {\frac {(c^{*})^{9}(e^{*})^{4}}{(m_{e}^{*})^{3}}}=2^{97}\pi ^{49}3^{9}\alpha ^{5}(\color {red}\Omega ^{15})^{5}\color {black}=} 0.170 514 368... 1092,  ( u 17 ) 9 ( u − 27 ) 4 ( u 15 ) 3 = 1 , ( v 9 ) ( r 3 v 3 ) 4 / ( r 4 v ) 3 = 1 {\displaystyle {\frac {(u^{17})^{9}(u^{-27})^{4}}{(u^{15})^{3}}}=1,\;(v^{9})({\frac {r^{3}}{v^{3}}})^{4}/({\frac {r^{4}}{v}})^{3}=1}

c 9 e 4 m e 3 = {\displaystyle {\frac {c^{9}e^{4}}{m_{e}^{3}}}=} 0.170 514 342... 1092,  u n i t s = m 9 C 4 s 9 k g 3 == ( u − 13 ) 9 ( u − 27 ) 4 ( u − 30 ) 9 ( u 15 ) 3 = 1 {\displaystyle units={\frac {m^{9}C^{4}}{s^{9}kg^{3}}}=={\frac {(u^{-13})^{9}(u^{-27})^{4}}{(u^{-30})^{9}(u^{15})^{3}}}=1}

###### kB, c, e, me

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( k B ∗ ) ( e ∗ ) 2 ( m e ∗ ) ( c ∗ ) 4 = 3 3 α 6 2 3 π 5 = {\displaystyle {\frac {(k_{B}^{*})}{(e^{*})^{2}(m_{e}^{*})(c^{*})^{4}}}={\frac {3^{3}\alpha ^{6}}{2^{3}\pi ^{5}}}=} 73 035 235 897.,  ( u 29 ) ( u − 27 ) 2 ( u 15 ) ( u 17 ) 4 = 1 , ( r 10 v 3 ) / ( r 3 v 3 ) 2 ( r 4 v ) ( v ) 4 = 1 {\displaystyle {\frac {(u^{29})}{(u^{-27})^{2}(u^{15})(u^{17})^{4}}}=1,\;({\frac {r^{10}}{v^{3}}})/({\frac {r^{3}}{v^{3}}})^{2}({\frac {r^{4}}{v}})(v)^{4}=1}

k B e 2 m e c 4 = {\displaystyle {\frac {k_{B}}{e^{2}m_{e}c^{4}}}=} 73 095 507 858.,  u n i t s = s 2 m 2 K C 2 == ( u − 30 ) 2 ( u − 13 ) 2 ( u 20 ) ( u − 27 ) 2 = 1 {\displaystyle units={\frac {s^{2}}{m^{2}KC^{2}}}=={\frac {(u^{-30})^{2}}{(u^{-13})^{2}(u^{20})(u^{-27})^{2}}}=1}

###### mP, tp, ε0

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These 3 constants, Planck mass, Planck time and the vacuum permittivity have no Omega term.

M 4 ( ϵ 0 ∗ ) T = ( 1 ) ( 2 9 π 3 α ) / ( π ) = 2 9 π 2 α = {\displaystyle {\frac {M^{4}(\epsilon _{0}^{*})}{T}}=(1)({\frac {2^{9}\pi ^{3}}{\alpha }})/(\pi )={\frac {2^{9}\pi ^{2}}{\alpha }}=} 36.875,  ( u 15 ) 4 ( u − 90 ) ( u − 30 ) = 1 , ( r 4 v ) 4 ( 1 r 7 v 2 ) / ( r 9 v 6 ) = 1 {\displaystyle {\frac {(u^{15})^{4}(u^{-90})}{(u^{-30})}}=1,\;({\frac {r^{4}}{v}})^{4}({\frac {1}{r^{7}v^{2}}})/({\frac {r^{9}}{v^{6}}})=1}

m p 4 ( ϵ 0 ) t p = {\displaystyle {\frac {m_{p}^{4}(\epsilon _{0})}{t_{p}}}=} 36.850,  u n i t s = k g 4 s s 4 A 2 m 3 k g = k g 3 A 2 s 3 m 3 == ( u 15 ) 3 ( u 3 ) 2 ( u − 30 ) 3 ( u − 13 ) 3 = 1 {\displaystyle units={\frac {kg^{4}}{s}}{\frac {s^{4}A^{2}}{m^{3}kg}}={\frac {kg^{3}A^{2}s^{3}}{m^{3}}}=={\frac {(u^{15})^{3}(u^{3})^{2}(u^{-30})^{3}}{(u^{-13})^{3}}}=1}

###### G, h, c, e, me, KB

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( h ∗ ) ( c ∗ ) 2 ( e ∗ ) ( m e ∗ ) ( G ∗ ) 2 ( k B ∗ ) = ( m e ∗ ) ( 2 11 π 3 α 2 ) = {\displaystyle {\frac {(h^{*})(c^{*})^{2}(e^{*})(m_{e}^{*})}{(G^{*})^{2}(k_{B}^{*})}}=(m_{e}^{*})({\frac {2^{11}\pi ^{3}}{\alpha ^{2}}})=} 0.1415... 10-21,  ( u 19 ) ( u 17 ) 2 ( u − 27 ) ( u 15 ) ( u 6 ) 2 ( u 29 ) = 1 , ( r 13 v 5 ) v 2 ( r 3 v 3 ) ( r 4 v 1 ) / ( r 5 v 2 ) 2 ( r 10 v 3 ) = 1 {\displaystyle {\frac {(u^{19})(u^{17})^{2}(u^{-27})(u^{15})}{(u^{6})^{2}(u^{29})}}=1,\;({\frac {r^{13}}{v^{5}}})v^{2}({\frac {r^{3}}{v^{3}}})({\frac {r^{4}}{v^{1}}})/({\frac {r^{5}}{v^{2}}})^{2}({\frac {r^{10}}{v^{3}}})=1}

h c 2 e m e G 2 k B = {\displaystyle {\frac {hc^{2}em_{e}}{G^{2}k_{B}}}=} 0.1413... 10-21,  u n i t s = k g 3 s 3 C K m 4 == ( u 15 ) 3 ( u − 30 ) 3 ( u − 27 ) ( u 20 ) ( u − 13 ) 4 = 1 {\displaystyle units={\frac {kg^{3}s^{3}CK}{m^{4}}}=={\frac {(u^{15})^{3}(u^{-30})^{3}(u^{-27})(u^{20})}{(u^{-13})^{4}}}=1}

###### α

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2 ( h ∗ ) ( μ 0 ∗ ) ( e ∗ ) 2 ( c ∗ ) = 2 ( 2 3 π 4 Ω 4 ) / ( α 2 11 π 5 Ω 4 ) ( 2 7 π 4 Ω 3 α ) 2 ( 2 π Ω 2 ) = α , u 19 u 56 ( u − 27 ) 2 u 17 = 1 , ( r 13 v 5 ) ( 1 r 7 ) ( v 6 r 6 ) ( 1 v ) = 1 {\displaystyle {\frac {2(h^{*})}{(\mu _{0}^{*})(e^{*})^{2}(c^{*})}}=2({2^{3}\pi ^{4}\Omega ^{4}})/({\frac {\alpha }{2^{11}\pi ^{5}\Omega ^{4}}})({\frac {2^{7}\pi ^{4}\Omega ^{3}}{\alpha }})^{2}(2\pi \Omega ^{2})=\color {blue}\alpha \color {black},\;{\frac {u^{19}}{u^{56}(u^{-27})^{2}u^{17}}}=1,\;({\frac {r^{13}}{v^{5}}})({\frac {1}{r^{7}}})({\frac {v^{6}}{r^{6}}})({\frac {1}{v}})=1}

Note: The above will apply to any combinations of constants (alien or terrestrial) where scalars = 1.

##### SI Planck unit scalars

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M = m P = ( 1 ) k ; k = m P = .217 672 817 58... 10 − 7 , u 15 ( k g ) {\displaystyle M=m_{P}=(1)k;\;k=m_{P}=.217\;672\;817\;58...\;10^{-7},\;u^{15}\;(kg)}

T = t p = π t ; t = t p π = .171 585 512 84...10 − 43 , u − 30 ( s ) {\displaystyle T=t_{p}={\pi }t;\;t={\frac {t_{p}}{\pi }}=.171\;585\;512\;84...10^{-43},\;u^{-30}\;(s)}

L = l p = 2 π 2 Ω 2 l ; l = l p 2 π 2 Ω 2 = .203 220 869 48...10 − 36 , u − 13 ( m ) {\displaystyle L=l_{p}={2\pi ^{2}\Omega ^{2}}l;\;l={\frac {l_{p}}{2\pi ^{2}\Omega ^{2}}}=.203\;220\;869\;48...10^{-36},\;u^{-13}\;(m)}

V = c = 2 π Ω 2 v ; v = c 2 π Ω 2 = 11 843 707.905... , u 17 ( m / s ) {\displaystyle V=c={2\pi \Omega ^{2}}v;\;v={\frac {c}{2\pi \Omega ^{2}}}=11\;843\;707.905...,\;u^{17}\;(m/s)}

A = e / t p = ( 2 7 π 3 Ω 3 α ) a = .126 918 588 59...10 23 , u 3 ( A ) {\displaystyle A=e/t_{p}=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }})a=.126\;918\;588\;59...10^{23},\;u^{3}\;(A)}

###### MT to LPVA

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In this example LPVA are derived from MT. The formulas for MT;

M = ( 1 ) k , u n i t = u 15 {\displaystyle M=(1)k,\;unit=u^{15}}

T = ( π ) t , u n i t = u − 30 {\displaystyle T=(\pi )t,\;unit=u^{-30}}

Replacing scalars pvla with kt

P = ( Ω ) k 12 / 15 t 2 / 15 , u n i t = u 12 / 15 ∗ 15 − 2 / 15 ∗ ( − 30 ) = 16 {\displaystyle P=(\Omega )\;{\frac {k^{12/15}}{t^{2/15}}},\;unit=u^{12/15*15-2/15*(-30)=16}}

V = 2 π P 2 M = ( 2 π Ω 2 ) k 9 / 15 t 4 / 15 , u n i t = u 9 / 15 ∗ 15 − 4 / 15 ∗ ( − 30 ) = 17 {\displaystyle V={\frac {2\pi P^{2}}{M}}=(2\pi \Omega ^{2})\;{\frac {k^{9/15}}{t^{4/15}}},\;unit=u^{9/15*15-4/15*(-30)=17}}

L = T V = ( 2 π 2 Ω 2 ) k 9 / 15 t 11 / 15 , u n i t = u 9 / 15 ∗ 15 + 11 / 15 ∗ ( − 30 ) = − 13 {\displaystyle L=TV=(2\pi ^{2}\Omega ^{2})\;k^{9/15}t^{11/15},\;unit=u^{9/15*15+11/15*(-30)=-13}}

A = 2 4 V 3 α P 3 = ( 2 7 π 3 Ω 3 α ) 1 k 3 / 5 t 2 / 5 , u n i t = u 9 / 15 ∗ ( − 15 ) + 6 / 15 ∗ 30 = 3 {\displaystyle A={\frac {2^{4}V^{3}}{\alpha P^{3}}}=\left({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }}\right)\;{\frac {1}{k^{3/5}t^{2/5}}},\;unit=u^{9/15*(-15)+6/15*30=3}}

###### PV to MTLA

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In this example MLTA are derived from PV. The formulas for PV;

P = ( Ω ) p , u n i t = u 16 {\displaystyle P=(\Omega )p,\;unit=u^{16}}

V = ( 2 π Ω 2 ) v , u n i t = u 17 {\displaystyle V=(2\pi \Omega ^{2})v,\;unit=u^{17}}

Replacing scalars klta with pv

M = 2 π P 2 V = ( 1 ) p 2 v , u n i t = u 16 ∗ 2 − 17 = 15 {\displaystyle M={\frac {2\pi P^{2}}{V}}=(1){\frac {p^{2}}{v}},\;unit=u^{16*2-17=15}}

T = ( π ) p 9 / 2 v 6 , u n i t = u 16 ∗ 9 / 2 − 17 ∗ 6 = − 30 {\displaystyle T=(\pi ){\frac {p^{9/2}}{v^{6}}},\;unit=u^{16*9/2-17*6=-30}}

L = T V = ( 2 π 2 Ω 2 ) p 9 / 2 v 5 , u n i t = u 16 ∗ 9 / 2 − 17 ∗ 5 = − 13 {\displaystyle L=TV=(2\pi ^{2}\Omega ^{2}){\frac {p^{9/2}}{v^{5}}},\;unit=u^{16*9/2-17*5=-13}}

A = 2 4 V 3 α P 3 = ( 2 7 π 3 Ω 3 α ) v 3 p 3 , u n i t = u 17 ∗ 3 − 16 ∗ 3 = 3 {\displaystyle A={\frac {2^{4}V^{3}}{\alpha P^{3}}}=({\frac {2^{7}\pi ^{3}\Omega ^{3}}{\alpha }}){\frac {v^{3}}{p^{3}}},\;unit=u^{17*3-16*3=3}}

##### G, h, e, me, kB

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As geometrical objects, the physical constants (G, h, e, me, kB) can also be defined using the geometrical formulas for (c*, μ0*, R*) and solved using the numerical (mean) values for (c, μ0, R, α). For example;

( h ∗ ) 3 = ( 2 3 π 4 Ω 4 r 13 u 19 v 5 ) 3 = 3 19 π 12 Ω 12 r 39 u 57 v 15 , θ = 57 {\displaystyle {(h^{*})}^{3}=(2^{3}\pi ^{4}\Omega ^{4}{\frac {r^{13}u^{19}}{v^{5}}})^{3}={\frac {3^{19}\pi ^{12}\Omega ^{12}r^{39}u^{57}}{v^{15}}},\;\theta =57} ... and ...

2 π 10 ( μ 0 ∗ ) 3 3 6 ( c ∗ ) 5 α 13 ( R ∗ ) 2 = 3 19 π 12 Ω 12 r 39 u 57 v 15 , θ = 57 {\displaystyle {\frac {2\pi ^{10}{(\mu _{0}^{*})}^{3}}{3^{6}{(c^{*})}^{5}\alpha ^{13}{(R^{*})}^{2}}}={\frac {3^{19}\pi ^{12}\Omega ^{12}r^{39}u^{57}}{v^{15}}},\;\theta =57}

Table 12. Calculated from (R, c, μ0, α) columns 2, 3, 4 vs CODATA 2014 columns 5, 6  Constant  | Formula  | Units  | Calculated from (R, c, μ0, α)  | CODATA 2014 [17] | Units

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Planck constant |  ( h ∗ ) 3 = 2 π 10 μ 0 3 3 6 c 5 α 13 R 2 {\displaystyle {(h^{*})}^{3}={\frac {2\pi ^{10}{\mu _{0}}^{3}}{3^{6}{c}^{5}\alpha ^{13}{R}^{2}}}} |  k g 3 A 6 s {\displaystyle {\frac {kg^{3}}{A^{6}s}}} , θ = 57  | h* = 6.626 069 134 e-34, θ = 19  | h = 6.626 070 040(81) e-34  |  k g m 2 s {\displaystyle {\frac {kg\;m^{2}}{s}}} , θ = 19
Gravitational constant |  ( G ∗ ) 5 = π 3 μ 0 2 20 3 6 α 11 R 2 {\displaystyle {(G^{*})}^{5}={\frac {\pi ^{3}{\mu _{0}}}{2^{20}3^{6}\alpha ^{11}{R}^{2}}}} |  k g m 3 A 2 s 2 {\displaystyle {\frac {kg\;m^{3}}{A^{2}s^{2}}}} , θ = 30  | G* = 6.672 497 192 29 e11, θ = 6  | G = 6.674 08(31) e-11  |  m 3 k g s 2 {\displaystyle {\frac {m^{3}}{kg\;s^{2}}}} , θ = 6
Elementary charge |  ( e ∗ ) 3 = 4 π 5 3 3 c 4 α 8 R {\displaystyle {(e^{*})}^{3}={\frac {4\pi ^{5}}{3^{3}{c}^{4}\alpha ^{8}{R}}}} |  s 4 A 3 {\displaystyle {\frac {s^{4}}{A^{3}}}} , θ = -81  | e* = 1.602 176 511 30 e-19, θ = -27  | e = 1.602 176 620 8(98) e-19  |  A s {\displaystyle As} , θ = -27
Boltzmann constant |  ( k B ∗ ) 3 = π 5 μ 0 3 3 3 2 c 4 α 5 R {\displaystyle {(k_{B}^{*})}^{3}={\frac {\pi ^{5}{\mu _{0}}^{3}}{3^{3}2{c}^{4}\alpha ^{5}{R}}}} |  k g 3 s 2 A 6 {\displaystyle {\frac {kg^{3}}{s^{2}A^{6}}}} , θ = 87  | kB* = 1.379 510 147 52 e-23, θ = 29  | kB = 1.380 648 52(79) e-23  |  k g m 2 s 2 K {\displaystyle {\frac {kg\;m^{2}}{s^{2}\;K}}} , θ = 29
Electron mass |  ( m e ∗ ) 3 = 16 π 10 R μ 0 3 3 6 c 8 α 7 {\displaystyle {(m_{e}^{*})}^{3}={\frac {16\pi ^{10}{R}{\mu _{0}}^{3}}{3^{6}{c}^{8}\alpha ^{7}}}} |  k g 3 s 2 m 6 A 6 {\displaystyle {\frac {kg^{3}s^{2}}{m^{6}A^{6}}}} , θ = 45  |  me* = 9.109 382 312 56 e-31, θ = 15  | me = 9.109 383 56(11) e-31  |  k g {\displaystyle kg} , θ = 15
Gyromagnetic ratio |  ( ( γ e ∗ ) / 2 π ) 3 = g e 3 3 3 c 4 2 8 π 8 α μ 0 3 R ∞ 2 {\displaystyle ({(\gamma _{e}^{*})/2\pi })^{3}={\frac {g_{e}^{3}3^{3}c^{4}}{2^{8}\pi ^{8}\alpha \mu _{0}^{3}R_{\infty }^{2}}}} |  m 3 s 2 A 6 k g 3 {\displaystyle {\frac {m^{3}s^{2}A^{6}}{kg^{3}}}} , θ = -126  | (γe*/2π) = 28024.953 55, θ = -42  | γe/2π = 28024.951 64(17)  |  A s k g {\displaystyle {\frac {A\;s}{kg}}} , θ = -42
Planck mass |  ( m P ∗ ) 15 = 2 25 π 13 μ 0 6 3 6 c 5 α 16 R 2 {\displaystyle ({m_{P}^{*}})^{15}={\frac {2^{25}\pi ^{13}{\mu _{0}}^{6}}{3^{6}c^{5}\alpha ^{16}R^{2}}}} |  k g 6 m 3 s 7 A 12 {\displaystyle {\frac {kg^{6}m^{3}}{s^{7}A^{12}}}} , θ = 225  | mP* = 0.217 672 817 580 e-7, θ = 15  | mP = 0.217 647 0(51) e-7  |  k g {\displaystyle kg} , θ = 15
Planck length |  ( l p ∗ ) 15 = π 22 μ 0 9 2 35 3 24 α 49 c 35 R 8 {\displaystyle ({l_{p}^{*}})^{15}={\frac {\pi ^{22}{\mu _{0}}^{9}}{2^{35}3^{24}\alpha ^{49}c^{35}R^{8}}}} |  k g 9 s 17 m 18 A 18 {\displaystyle {\frac {kg^{9}s^{17}}{m^{18}A^{18}}}} , θ = -195  | lp* = 0.161 603 660 096 e-34, θ = -13  | lp = 0.161 622 9(38) e-34  |  m {\displaystyle m} , θ = -13

#### External links

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* Mathematical electron
* Physical constant anomalies
* Programming relativity at the Planck scale
* Programming gravity at the Planck scale
* Programming the cosmic microwave background at the Planck scale
* The sqrt of Planck momentum
* The Programmer God
* The Simulation hypothesis
* Programming at the Planck scale using geometrical objects -Malcolm Macleod's website
* Simulation Argument -Nick Bostrom's website
* Our Mathematical Universe: My Quest for the Ultimate Nature of Reality -Max Tegmark
* The Programmer God, an overview of the mathematical electron model -ebook
* Dirac-Kerr-Newman black-hole electron -Alexander Burinskii (article)

#### References

[edit | edit source]

1. ↑ Macleod, M.J. "Programming Planck units from a mathematical electron; a Simulation Hypothesis". Eur. Phys. J. Plus 113: 278. 22 March 2018. doi:10.1140/epjp/i2018-12094-x.
2. ↑ Planck (1899), p. 479.
3. ↑ *Tomilin, K. A., 1999, "Natural Systems of Units: To the Centenary Anniversary of the Planck System", 287–296.
4. ↑ A Planck scale mathematical universe model
5. ↑ [1] | CODATA, The Committee on Data for Science and Technology | (2014)
6. ↑ [2] | CODATA, The Committee on Data for Science and Technology | (2014)
7. ↑ [3] | CODATA, The Committee on Data for Science and Technology | (2018)
8. ↑ Macleod, Malcolm J. "Physical constant anomalies suggest a mathematical relationship linking SI units". RG. doi:10.13140/RG.2.2.15874.15041/6.
9. ↑ https://codingthecosmos.com/ai-answers-programmer-god-simulation-hypothesis/anomalies-constants.html Physical constants Q&A with podcast
10. ↑ https://chatgpt.com/share/68259395-31d0-8012-954e-c52230a813fd Chat anomalies analysis
11. ↑ https://chat.qwen.ai/s/f33ec1b1-899b-4fa5-9429-67e527b78433 Qwen anomalies analysis
12. ↑ https://claude.ai/public/artifacts/797a802b-fa21-4ee7-9ae9-9dbdf5d7b29a Claude anomalies analysis
13. ↑ https://codingthecosmos.com/ai_pdf/Claude-anomalies-05-2025.pdf Claude anomalies analysis pdf
14. ↑ https://x.com/i/grok/share/JzeRFDlj721zNnm1Jo2vbETk3 Grok anomalies analysis
15. ↑ https://codingthecosmos.com/ai_pdf/Grok-anomalies-05-2025.pd Grok anomalies analysis pdf
16. ↑ https://codingthecosmos.com/ai_pdf/Deepseek-anomalies-05-2025.pdf Deepseek anomalies analysis
17. ↑ [4] | CODATA, The Committee on Data for Science and Technology | (2014)