This document provides a visual representation of the constant hierarchy in the Mħπ system, showing the relationships between primitive and derived constants.
graph TD
%% Primitive Constants
Pi[π - Pi\nDimensionless]
P[P - Planck Length\nLength]
Tau[τ - Planck Time\nTime]
Hbar[ℏ - Reduced Planck Constant\nEnergy·Time]
G[G - Gravitational Constant\nL³/MT²]
K[k - Boltzmann Constant\nEnergy/Temperature]
E[e - Elementary Charge\nCharge]
%% Derived Constants
C[c - Speed of Light\nVelocity]
Delta[Δ - Planck Time Unit\nTime]
%% Relationships
P --> C
Tau --> C
C --> Delta
P --> Delta
%% Relationship Labels
Tau -- "c = P/τ" --> C
P -- "c = P/τ" --> C
C -- "Δ = P/c" --> Delta
P -- "Δ = P/c" --> Delta
%% Styling
classDef primitive fill:#d4f1f9,stroke:#05386B,stroke-width:2px
classDef derived fill:#ffedcc,stroke:#05386B,stroke-width:2px
class Pi,P,Tau,Hbar,G,K,E primitive
class C,Delta derived
Speed of Light:
c = P / τ
The speed of light is defined as the Planck length divided by the Planck time.
Planck Time Unit:
Δ = P / c
The Planck Time Unit is defined as the Planck length divided by the speed of light.
Derived Identity:
Δ = τ
From the above two equations, we can derive that Δ = τ. In the Mħπ system, these are maintained as distinct symbols for notational flexibility, but they represent the same physical quantity.
The following table shows the dimensions of each constant in the Mħπ system:
Constant | Symbol | Dimensions | Type |
---|---|---|---|
Pi | π | Dimensionless | Primitive |
Planck Length | P | Length (L) | Primitive |
Planck Time | τ | Time (T) | Primitive |
Reduced Planck Constant | ℏ | Energy·Time (ML²/T) | Primitive |
Gravitational Constant | G | L³/(M·T²) | Primitive |
Boltzmann Constant | k | Energy/Temperature (ML²/T²Θ) | Primitive |
Elementary Charge | e | Electric Charge (Q) | Primitive |
Speed of Light | c | Velocity (L/T) | Derived |
Planck Time Unit | Δ | Time (T) | Derived |
In natural units systems, certain constants are set to 1:
Natural Units (ℏ=c=1):
Planck Units (ℏ=c=G=k=1):
In the Mħπ implementation:
The simplifier enforces the relationships c · τ = P
and c · Δ = P
by automatically simplifying these expressions to P
.
The dimensional analysis system ensures that all constants have the correct physical dimensions and that operations maintain dimensional consistency.
The symbols τ and Δ are maintained as distinct for notational flexibility, but they represent the same physical quantity in the current implementation.