The NKTg Law and the NKTm Unit – A Law of Physics and Its Philosophical Implications
Posted: Tue Sep 23, 2025 7:00 am
We are all familiar with the great names of science which became inseparable from the fundamental measures of nature: Newton is bound to force, Pascal to pressure, Joule to energy, Watt to power. These are not just convenient conventions of measurement; they are emblems of how human thought has touched eternal truths hidden in the cosmos.
Today I want to share with you something in that same tradition: the NKTg Law, or the Law of Varying Inertia. Unlike a personal theory or speculative proposal, it asserts itself as an objective physical law, grounded in measurable data and endowed with its own unit of measurement, the NKTm.
What is the NKTg Law?
The NKTg Law describes the tendency of motion under the simultaneous influence of position, velocity, and mass. If Newton gave us force as the interaction of mass and acceleration, the NKTg Law gives us inertia in transformation — varying inertia.
Two fundamental forms express this law:
NKTg₁ = x·p – the interaction between position and momentum.
NKTg₂ = (dm/dt)·p – the interaction between mass variation and momentum.
Together, they reveal that inertia is not fixed, but changes with circumstance. To capture this reality, we need a unit of its own: the NKTm.
Why a New Unit, NKTm?
Just as the Newton (N) affirms force, and the Joule (J) affirms energy, the NKTm affirms that varying inertia is a real physical quantity, not reducible to Newtons, Joules, or Watts.
Dimensional analysis shows:
From position–momentum interaction: [M·L²/T]
From mass-variation–momentum interaction: [M²·L/T²]
This may look abstract, but it places NKTm on the same ontological ground as Newton or Joule — a new measure for a new law.
Empirical Verification
This is not speculation. Data from NASA JPL Horizons (Neptune, 2023–2024) confirm it:
Position: 4.498 × 10⁹ km
Velocity: 5.43 km/s
Mass: 1.0243 × 10²⁶ kg
Momentum: 5.564 × 10²⁶ kg·m/s
From this:
NKTg₁ = 2.503 × 10³⁶ NKTm
NKTg₂ = −1.113 × 10²² NKTm (assuming a small gas escape rate)
NKTg = 2.501 × 10³⁶ NKTm
This shows the NKTm as a measurable quantity, not a symbolic trick.
Philosophical and Scientific Significance
The NKTg Law is neither a consequence of Newton nor a correction to Einstein. It is independent. This is philosophically important: it suggests that the universe is not exhausted by existing categories, but still reveals new principles.
Applications span:
Astronomy: explaining planetary mass changes, stellar evolution, gas escape, galaxy formation.
Aerospace: rocket trajectories, fuel optimization, ion and plasma engines.
Earth sciences: climate modeling, sea level rise, redistribution of mass.
Engineering: variable-mass robots, cargo systems, suspension mechanics.
Cosmology: perhaps even offering new perspectives on dark matter and dark energy.
In other words, NKTg opens a new framework for both physics and philosophy.
Conclusion
The creation of the NKTm unit means that varying inertia is not just a formula but a measurable, independent quantity.
This affirms three things:
Reality: varying inertia truly exists.
Independence: it cannot be reduced to classical SI units.
A new foundation: it enables us to build equations beyond Newtonian mechanics.
Therefore, the NKTg Law and the NKTm unit are not personal suggestions, but the uncovering of a new law of nature. Like Newton and Einstein, they extend the horizon of human understanding — from the movement of planets to the deepest mysteries of the cosmos.
Now, I’d like to ask fellow philosophers here: if physics continues to discover new fundamental laws like this, how should philosophy of science respond? Do we treat each new unit — like the NKTm — as simply an extension of our models, or as a sign that our metaphysical categories of motion, matter, and being must themselves evolve?
Today I want to share with you something in that same tradition: the NKTg Law, or the Law of Varying Inertia. Unlike a personal theory or speculative proposal, it asserts itself as an objective physical law, grounded in measurable data and endowed with its own unit of measurement, the NKTm.
What is the NKTg Law?
The NKTg Law describes the tendency of motion under the simultaneous influence of position, velocity, and mass. If Newton gave us force as the interaction of mass and acceleration, the NKTg Law gives us inertia in transformation — varying inertia.
Two fundamental forms express this law:
NKTg₁ = x·p – the interaction between position and momentum.
NKTg₂ = (dm/dt)·p – the interaction between mass variation and momentum.
Together, they reveal that inertia is not fixed, but changes with circumstance. To capture this reality, we need a unit of its own: the NKTm.
Why a New Unit, NKTm?
Just as the Newton (N) affirms force, and the Joule (J) affirms energy, the NKTm affirms that varying inertia is a real physical quantity, not reducible to Newtons, Joules, or Watts.
Dimensional analysis shows:
From position–momentum interaction: [M·L²/T]
From mass-variation–momentum interaction: [M²·L/T²]
This may look abstract, but it places NKTm on the same ontological ground as Newton or Joule — a new measure for a new law.
Empirical Verification
This is not speculation. Data from NASA JPL Horizons (Neptune, 2023–2024) confirm it:
Position: 4.498 × 10⁹ km
Velocity: 5.43 km/s
Mass: 1.0243 × 10²⁶ kg
Momentum: 5.564 × 10²⁶ kg·m/s
From this:
NKTg₁ = 2.503 × 10³⁶ NKTm
NKTg₂ = −1.113 × 10²² NKTm (assuming a small gas escape rate)
NKTg = 2.501 × 10³⁶ NKTm
This shows the NKTm as a measurable quantity, not a symbolic trick.
Philosophical and Scientific Significance
The NKTg Law is neither a consequence of Newton nor a correction to Einstein. It is independent. This is philosophically important: it suggests that the universe is not exhausted by existing categories, but still reveals new principles.
Applications span:
Astronomy: explaining planetary mass changes, stellar evolution, gas escape, galaxy formation.
Aerospace: rocket trajectories, fuel optimization, ion and plasma engines.
Earth sciences: climate modeling, sea level rise, redistribution of mass.
Engineering: variable-mass robots, cargo systems, suspension mechanics.
Cosmology: perhaps even offering new perspectives on dark matter and dark energy.
In other words, NKTg opens a new framework for both physics and philosophy.
Conclusion
The creation of the NKTm unit means that varying inertia is not just a formula but a measurable, independent quantity.
This affirms three things:
Reality: varying inertia truly exists.
Independence: it cannot be reduced to classical SI units.
A new foundation: it enables us to build equations beyond Newtonian mechanics.
Therefore, the NKTg Law and the NKTm unit are not personal suggestions, but the uncovering of a new law of nature. Like Newton and Einstein, they extend the horizon of human understanding — from the movement of planets to the deepest mysteries of the cosmos.
Now, I’d like to ask fellow philosophers here: if physics continues to discover new fundamental laws like this, how should philosophy of science respond? Do we treat each new unit — like the NKTm — as simply an extension of our models, or as a sign that our metaphysical categories of motion, matter, and being must themselves evolve?