Granted Patent B1

US 12,695,000 · App. 19/204,177 · Granted Jul 28, 2026

Inventor: Sean Null (Kansas City, MO)

G21K1/00H01Q15/00

Abstract

Claims (16)

1 . A system for non-stochastic modulation and performance enhancement of a computing system using vacuum energy fields, said system comprising:

a vacuum modulation engine including at least one processor and a memory including computer-executable instructions that cause the at least one processor to:

identify a vacuum energy field, wherein the vacuum energy field includes vacuum energy within a boundary associated with the computing system;

determine a scalar field based on the vacuum energy field;

calculate a d'Alembertian operation of the scalar field;

calculate a scalar potential of the scalar field based on the d'Alembertian operation of the scalar field, wherein the d'Alembertian operation of the scalar field is equal to the scalar potential of the scalar field; and

determine a modulation field based on the scalar field and the scalar potential of the scalar field to structure the vacuum energy field and generate a modulated vacuum energy output; and

a modulation device connected to the vacuum modulation engine and incorporated into the computing system, wherein the modulation device is configured to dynamically adjust an execution parameter of the computing system in real-time based on the calculated modulation field to achieve at least one of faster execution speed, reduced power usage, extended stability period for a control loop, increased system resilience to load fluctuations, enhanced information coherence in distributed systems, or increased processing capacity of the computing system.

2 . The system in accordance with claim 1 , wherein the modulation field is represented by one of a symbolic, tensorial, logical, topological, or algorithmic representation.

3 . The system in accordance with claim 1 , further comprising selecting the modulation field to cause entropy suppression, coherence retention, and symbolic propagation when the modulation field is applied to the vacuum energy field.

4 . The system in accordance with claim 1 , wherein the vacuum modulation engine is configured to determine a resonant frequency of the vacuum energy field and calculate a structured vacuum energy density based on the resonant frequency.

5 . The system in accordance with claim 1 , further comprising calculating a mathematical transformation of the scalar field, wherein the mathematical transformation includes at least one of a mathematical operation, isomorphisms, domain substitutions, nonlinear embeddings, or variational parameterizations.

6 . The system in accordance with claim 1 , further comprising applying the modulation field to the vacuum energy field and determining modulation of the vacuum energy field after applying the modulation field to the vacuum energy field.

7 . The system in accordance with claim 6 , wherein the modulation of the vacuum energy field is determined using an entropy trace analysis, coherence spectral signatures, symbolic propagation variance, or energy fluctuation profiles based on the scalar field.

8 . The system in accordance with claim 1 , further comprising calculating a structured vacuum energy density of the modulated vacuum energy output by multiplying a reduced Planck constant and a resonant frequency and dividing a product of the reduced Planck constant and the resonant frequency by a product of a speed of light to a third power and a square of 2π.

9 . The system in accordance with claim 1 , wherein the modulation field includes at least one of an electric current, a wave, light, a sound, electromagnetism, or vacuum energy.

References Cited (41)