F51 · CF051
Independent energy contributions add in rate
Status: EXACT
Expression: Γ_{m,tot} = Σ_i Γ_{m,i}
Definitions
- Γ_{m,tot} is total matter-action rate; Γ_{m,i} is contribution i; Σ_i sums independent contributions.
Explanation
Adds independent cell or source contributions at the action-accumulation rate level.
Cross-references: CF042, CF050, CF052
Source page: F3
F52 · CF052
Natural cell timelike direction
Status: EXACT
Expression: t^μ = K^μ/√(−K²), K^μ = Σ_a k_a^μ
Definitions
- t^μ is normalized cell timelike direction; K^μ is the branch sum; k_a^μ are branch vectors.
Explanation
Normalizes the sum of the four null branches to obtain the cell time direction.
Cross-references: CF002, CF005, CF041
Source page: F3
F53 · CF053
Matter-occupancy bookkeeping variable
Status: BOOKKEEPING
Expression: χ_m ∈ {0,1}
Definitions
- χ_m is binary matter occupancy: 0 means absent and 1 means present.
Explanation
Introduces a binary indicator for whether matter occupies the local cell.
Cross-references: CF054, CF055, CF056, CF057
Source page: F3
F54 · CF054
Matter absent, neutral fabric
Status: STATE
Expression: (χ_m,M) = (0,0)
Definitions
- χ_m is matter occupancy; M is deformation; both are zero in the neutral empty state.
Explanation
Labels the locally empty undeformed state.
Cross-references: CF053, CF055, CF056, CF057
Source page: F3
F55 · CF055
Matter present, deformed fabric
Status: STATE
Expression: (χ_m,M) = (1,M ≠ 0)
Definitions
- χ_m=1 marks matter; M is a nonzero local deformation.
Explanation
Labels matter supported by a locally deformed fabric.
Cross-references: CF053, CF054, CF056, CF061
Source page: F3
F56 · CF056
Matter absent locally, deformation persists
Status: STATE
Expression: (χ_m,M) = (0,M ≠ 0)
Definitions
- χ_m=0 marks local matter absence; M is a persistent nonzero deformation.
Explanation
Allows a deformation field to remain after local matter occupancy vanishes.
Cross-references: CF053, CF054, CF055, CF061
Source page: F3
F57 · CF057
Neutral M; does not by itself imply D₀ = T_c
Status: SPECIAL STATE
Expression: (χ_m,M) = (1,0)
Definitions
- χ_m=1 marks matter; M=0 is neutral deformation; D₀ is aggregation time; T_c is intrinsic time.
Explanation
Separates matter occupancy from deformation and warns that neutral M alone does not impose equal times.
Cross-references: CF047, CF049, CF053, CF055
Source page: F3
F58 · CF058
One-causal-depth column density
Status: DEFINITION
Expression: Σ_col = ρL_c
Definitions
- Σ_col is column density; ρ is mass density; L_c is one causal depth.
Explanation
Defines projected density through one native causal depth.
Cross-references: CF001, CF059, CF067
Source page: F3
Expression: ∫Σ_col dA = M_source
Definitions
- Σ_col is column density; A is projected area; M_source is enclosed source mass.
Explanation
Relates projected column density to source mass under the chosen geometry.
Cross-references: CF058, CF067, CF068
Source page: F3
F60 · CF060
Baseline fabric universality requirement
Status: POSTULATE
Expression: ∂κ_C/∂m = ∂κ_C/∂ρ = ∂κ_C/∂Ω = 0
Definitions
- κ_C is area stiffness; m is mass; ρ is density; Ω is orientation; partial derivatives test dependence.
Explanation
Postulates that baseline fabric stiffness is independent of mass, density, and orientation.
Cross-references: CF030, CF061, CF066
Source page: F3
F61 · CF061
Operational deformation/clock relation
Status: CONDITIONAL
Expression: M = ln(dτ/dt)
Definitions
- M is deformation; τ is local proper or fabric time; t is reference coordinate time.
Explanation
Defines deformation as the logarithm of the local clock-rate ratio.
Cross-references: CF055, CF062, CF063, CF064
Source page: F3
F62 · CF062
Local clock ratio
Status: CONDITIONAL
Expression: dτ/dt = e^M
Definitions
- τ is local time; t is reference time; M is deformation.
Explanation
Rewrites the operational deformation relation as a local clock ratio.
Cross-references: CF061, CF063, CF076
Source page: F3
F63 · CF063
Weak-field potential identification
Status: CONDITIONAL
Expression: Φ = c²δM
Definitions
- Φ is weak-field potential; c is light speed; δM is a small deformation perturbation.
Explanation
Identifies the weak potential with the dimensionless deformation perturbation.
Cross-references: CF061, CF064, CF067, CF068
Source page: F3
F64 · CF064
Weak-field acceleration
Status: CONDITIONAL
Expression: g = −c²∇M
Definitions
- g is weak gravitational acceleration; c is light speed; ∇M is the deformation gradient.
Explanation
Takes the negative spatial gradient of deformation as weak-field acceleration.
Cross-references: CF061, CF063, CF067, CF069
Source page: F3
F65 · CF065
Orientation-balanced spherical mean
Status: EXACT EXPANSION
Expression: Ā[M] = M + (L_c²/6)∇²M + (L_c⁴/120)∇⁴M + ⋯
Definitions
- Ā[M] is the orientation-balanced mean; M is deformation; L_c is native length; ∇² is the Laplacian.
Explanation
Expands the isotropic average of M in even spatial derivatives through the causal scale.
Cross-references: CF066, CF067, CF070
Source page: F3
F66 · CF066
Discrete mean-defect source rule
Status: CONDITIONAL
Expression: Ā[M] − M = (C_Σ/4)A_cell
Definitions
- Ā[M] is spherical mean; M is local deformation; C_Σ is retained coefficient; A_cell is loading.
Explanation
Connects the orientation-averaging defect to the dimensionless matter loading.
Cross-references: CF032, CF046, CF060, CF065
Source page: F3
F67 · CF067
Weak continuum source law
Status: CONDITIONAL
Expression: ∇²M = C_Σ(c³T_c²/ℏ)ρ
Definitions
- M is deformation; C_Σ is retained coefficient; c is light speed; T_c is causal time; ρ is density; ℏ is action.
Explanation
Gives the retained weak continuum deformation response to mass density.
Cross-references: CF032, CF048, CF063, CF068, CF069, CF098
Source page: F3
Expression: ∇²M = (4πG/c²)ρ
Definitions
- M is deformation; G is calibrated gravitational coupling; c is light speed; ρ is density.
Explanation
Shows compatibility of the continuum source law with the Big-G Poisson normalization.
Cross-references: CF036, CF067, CF069, CF111
Source page: F3
Expression: ∇²Φ = 4πGρ
Definitions
- Φ is weak potential; G is calibrated gravitational coupling; ρ is density.
Explanation
Recovers the conventional weak-field Poisson equation after the potential identification.
Cross-references: CF063, CF068, CF098
Source page: F3
Expression: Q₆(M) = 16e²M + 8e⁻²M
Definitions
- Q₆ is reduced reciprocal spectrum; M is deformation; e is the exponential base.
Explanation
Defines the reduced six-channel reciprocal quadratic used for the spectral minimum.
Cross-references: CF071, CF072, CF073, CF074, CF075
Source page: F3
F71 · CF071
Mathematical minimum of Q₆
Status: EXACT
Expression: M_* = −(1/4)ln 2
Definitions
- M_* is minimizing deformation; Q₆ is the reduced spectrum; ln is natural logarithm.
Explanation
Locates the stationary minimum of the reduced reciprocal spectrum.
Cross-references: CF070, CF072, CF073
Source page: F3
F72 · CF072
Minimum reciprocal spectral value
Status: EXACT
Expression: Q₆,min = 16√2
Definitions
- Q₆,min is the minimum spectrum value; Q₆ is the reduced reciprocal spectrum.
Explanation
Evaluates Q₆ at its mathematical minimum.
Cross-references: CF070, CF071, CF073
Source page: F3
F73 · CF073
Reciprocal spectral-product invariant
Status: EXACT
Expression: Q₊Q₋ = 128
Definitions
- Q₊ and Q₋ are the reciprocal spectral sectors.
Explanation
States the deformation-independent product of the paired reciprocal sectors.
Cross-references: CF070, CF072, CF074
Source page: F3
F74 · CF074
Hyperbolic spectral invariant
Status: EXACT
Expression: S₆² − D₆² = 512
Definitions
- S₆ and D₆ are the sum and difference spectral combinations.
Explanation
Records the invariant difference of squared sum and difference sectors.
Cross-references: CF070, CF073, CF075
Source page: F3
Expression: Tr|K(M)| = 8 cosh M
Definitions
- K(M) is the deformation-dependent channel operator; Tr is trace; M is deformation.
Explanation
Gives the trace magnitude of the stated reciprocal spectrum in hyperbolic form.
Cross-references: CF070, CF073, CF074
Source page: F3