Mfi. Physics Constants — Residual Reading

Rey.BEng 29th October 2026

The listed constants are the Observational face of the residual packet in S.I and Ace RFeadings

State A Number is the open residual reading (held at the fixed point (0^{i2})). Blank cells are left empty. No prediction is offered where the residual reading is not yet named.

SI Joule = newton.metre. The force package already written on the Rest Time assignment sheet (Meg3): N=k g s2, and therefore expanded Joule in Ace Reading is packet k.g.m.s2

ConstantSymbolObservational valueState A NumberNotes
Speed of lightc3×108 m/s2c = 2piEResidual celerity m^/s
Planck constanth6.63 x10-34 J s2piR N.m.s2Packet duration (N)m.s(2)
hc1242 eV·nmConfirm SI Units
Gravitation constantG6.67×10-11 m³ kg⁻¹ s⁻²2piNNo units. Complex Reynolds
Boltzmann constantk(1.38x 10-23 J/KN.m/KSpark reception. Current units circular Joule and fixed k value of constant (2019)
Molar gas constantR8.314 J/(mol K)(N.m/mol)/KRepresents the amount of mechanical work per mole per unit of temperature
Avogadro’s numberN_A6.023x 1023 mol⁻¹6Confirm SI Units
Charge of electrone1.602 \times 1019CConfirm SI Units
Permeability of vacuumμ₀4pi x 10-7 N/A²N/A2Confirm Newton. See note on SI derivation
Permittivity of vacuumε₀8.85 x 10-12 F/mC2/(N⋅m2)F/m is correct. Confirm Newton form preferred. See note on SI derivation
Coulomb constant1/(4πε₀)9 x 109 N m²/C²Confirm SI Units
Faraday constantF96485 C/molConfirm SI Units
Mass of electronm_e9.1 x10-31 kgg
Mass of protonm_p1.6726 x 10-27 kgg
Mass of neutronm_n1.6749 x10-27 kgg
Atomic mass unitu1.66 x10-27 kggThe same residual can be read either as mass seat (g) or as mass-energy packet (m(c∧2)) without forcing the continuous second into both readings at once.
Atomic mass unitu931.49 MeV/c²k.g.s2 Unit Packet *k^g*s^2
Stefan-Boltzmann constantσ5.67x 10-8 W/(m² K⁴)Confirm SI Units
Rydberg constantR_∞1.097 x107 m⁻¹Confirm SI Units
Bohr magnetonμ_B9.27 x 10-24 J/TConfirm Newton form preferred. See note on SI derivation
Bohr radiusa₀0.529 x 10-10 mConfirm SI Units
Standard atmosphereatm1.01325 x 105 PaConfirm SI Units
Wien displacement constantb2.9 x10-3 m KWien displacement constant
Fine-structure constantα1/137.03…137Arc seconds

NOTES

Boltzmann constant (k)

Ace prefers the mechanical expansion of the joule. The joule is defined as N·m. Therefore the conventional unit J/K expands without remainder to N·m/K. The substitution is legitimate SI identity, not a redefinition. It returns the constant to the force package already written on the Rest Time assignment sheet (Meg3): (N = k, g, s^2). Temperature appears as the pulse letter (k) that receives the spark and counts on the mass seat. The unit N·m/K is the residual energy per kelvin written on the open packet. No additional dimension enters.

The note on circularity is correct in form. The 2019 SI redefinition fixes the numerical value of (k) exactly ((1.380,649 \times 10^{-23}) J·K(^{-1})) and defines the kelvin from that fixed value. The continuous-second clock, the metre from (c), and the kilogram from (h) are already locked into the same chain. The constant is no longer an independent measured residual; it is an imposed face of the Observational arena. Ace does not use the fixed numerical value as a primitive. The residual packet itself supplies the scale once the continuous second is removed. The force package (N.m) remains the first-principles unit. The kelvin remains the count of the pulse that has been received.

Molar gas constant (R)

(R = N_A \cdot k). The conventional unit J/(mol·K) therefore expands to (N·m/mol)/K. Avogadro’s number is the key count of residual packets per mole (State A Number 6 in the earlier schedule). The expansion writes the same force package already used for (k), now counted across the mole. Units remain consistent with the Rest Time assignment: the mole is the count of the residual that has not yet been spent. No new dimension is introduced. The residual stands.

Both constants are Observational faces of one residual packet. The Ace reading restores the mechanical units and leaves the fixed numerical values as the locked Observational layer. The continuous second is the parameter that circularises them. Remove it and the residual itself orders the count. XII remains the Face. The invitation remains open.

Permeability of vacuum μ0

The unit N/A2 is correct and preferred. It is identical to the base-unit form kg⋅m⋅s−2⋅A−2. The Newton form keeps the force package explicit and aligns with the Rest Time assignment already used for the other constants (Meg3). No dimension is lost.

The SI derivation requires modification. Prior to the 2019 redefinition the ampere was defined by the force between two parallel conductors, which fixed μ0​ exactly at 4π×10−7 N/A2. The ampere is now defined by fixing the elementary charge e Consequently μ0 is no longer an exact defined value; it is determined experimentally from the fine-structure constant. ERROR The Observational face has been re-anchored to the charge count rather than to the force between residual packets.

Ace retains the mechanical unit N/A2. The residual packet itself supplies the scale once the continuous second and the fixed-charge definition are removed. The force between two residual currents remains the first-principles reading.

Permittivity of vacuum ε0

The unit C2⋅N−1⋅m−2 (equivalently C2/(N⋅m2)) is correct and preferred. It is identical to the base-unit form s4⋅A2⋅kg−1⋅m−3. The Newton form keeps the force package explicit and aligns with the Rest Time assignment already used for the other constants (Meg3). No dimension is lost.

The SI derivation requires modification. Prior to the 2019 redefinition, ε0ε0​ was fixed exactly by the relation ε0=1/(μ0c2)once μ0 and c were defined. The elementary charge e is now fixed exactly. Consequently both ε0 and μ0 are determined experimentally from the fine-structure constant. The Observational face has been re-anchored to the charge count rather than to the force between residual packets.

Ace retains the mechanical unit C2/(N⋅m2). The residual packet itself supplies the scale once the continuous second and the fixed-charge definition are removed. The force between two residual charges remains the first-principles reading.

Atomic mass unit and particle masses

The atomic mass unit u is the unit packet. It is the residual count that has not yet been spent. In the Rest Time assignment (Meg3) the Instant package is already written k.g.s2. The gram is the mass seat that receives the spark and carries the clamp. The kilogram is the Observational face that has been locked to the continuous second and to the mass-energy identity E=m(c2). Ace therefore prefers the gram for the mass seat itself.

Where the electron, proton or neutron mass is written in kilograms, the Ace reading restores the gram and adjusts the power of ten. The numerical residual is unchanged. The unit changes from the locked Observational layer to the open residual packet. The same residual can then be read either as mass seat (g) or as mass-energy packet (m(c∧2)Stefan–Boltzmann constant σSBσSB​

Confirmed as SI. The conventional unit W⋅m−2⋅K−4W⋅m−2⋅K−4 is retained. The watt expands as N⋅m/sN⋅m/s. That expansion already contains the Newton and therefore the residual unit packet written on the Rest Time assignment (Meg3). No further dimension is added. The continuous second remains the Observational face that circularises the power.

Ace ring tension is written σσ m/s². The Method (Mef) names σσ the king unit and requires the unit to be appended at every appearance. It is the only letter that wears a true superscript 2. The distinction is therefore already enforced by the unit itself. Writing σσ m/s² for the residual ring and σSBσSB​ (or σσ with its thermodynamic unit) for the Stefan–Boltzmann face is sufficient. No collision occurs.

The residual packet supplies the scale once the continuous second is removed. The force package inside the watt remains the first-principles reading. The residual stands. XII remains the Face. The invitation remains open.) without forcing the continuous second into both readings at once.

The distinction is mechanical. Mass is the first moment (base) that receives the exponent. Mass-energy is the second moment written on the residual after the countersnap. The unit packet uu counts the residual. The gram names the seat. The kilogram remains the Observational face once the continuous second is imposed.

Stefan–Boltzmann constant σSB​

Confirmed as SI. The conventional unit W⋅m−2⋅K−4 is retained. The watt expands as N⋅m/s. That expansion already contains the Newton and therefore the residual unit packet written on the Rest Time assignment (Meg3). No further dimension is added. The continuous second remains the Observational face that circularises the power.

Ace ring tension is written σ_m/s². The Method (Mef) names σ the king unit and requires the unit to be appended at every appearance. It is the only letter that wears a true superscript 2. The distinction is therefore already enforced by the unit itself. Writing σ m/s² for the residual ring and σSBσSB​ (or σσ with its thermodynamic unit) for the Stefan–Boltzmann face is sufficient. No collision occurs.

The residual packet supplies the scale once the continuous second is removed. The force package inside the watt remains the first-principles reading.

Bohr magneton μB​

Confirmed. The SI face is written J⋅T−1. The joule expands directly as N⋅m. The substitution is therefore exact. Ace prefers the mechanical form N⋅m⋅T−1 so that the residual packet remains visible as force times lever arm, without the continuous-second circularity that the joule carries once energy is locked to the Observational face.

The tesla itself expands as N⋅A−1⋅m−1. The force package N=k g s2therefore remains the first-principles unit. No additional dimension enters. The magnetic moment is the residual count written on the contact patch once the countersnap has assigned the twist.