Phocoustic Patent Portfolio — Interlocking Architecture

A Unified, Physics-Anchored Intellectual Property Platform

Phocoustic’s 20-patent family forms a stacked, mutually dependent architecture in which each layer reinforces the one below it.
Together, they create a defensible end-to-end pipeline from sensor input → physics drift extraction → semantic development → cognitive stability → cross-object lineage.


1. Sensor and Physics Foundation

Goal:
Extract real, physically admissible change from optical, structured-light, and related physical measurements.

Scope:
This foundational layer establishes deterministic methods for separating genuine physical change from noise, glare, transient artifacts, and statistical fluctuation. It enforces persistence across time, continuity across space, and material plausibility before any change is allowed to propagate further into the system.

Function:
By preventing hallucinated or unstable change from entering downstream stages, this layer forms the physical truth anchor for every subsequent semantic or cognitive capability.


2. Change Structuring and Reference Formation

Goal:
Convert raw physical change into stable, traceable internal representations.

Scope:
This layer defines how the system maintains both a fixed, high-precision reference baseline and a cautiously adaptive reference that updates only when change is physically validated. Deterministic rules govern when each reference is used and how they may be combined without corruption.

Function:
These mechanisms prevent slow defects or gradual instabilities from being absorbed into the reference itself—a failure mode common in adaptive vision systems—and provide a reliable internal standard for inspection, navigation, and reasoning.


3. Geometry, Structured Light, and Physical Interpretation

Goal:
Translate validated change and geometry into meaningful physical interpretations.

Scope:
This layer focuses on how structured-light patterns deform across real surfaces and how geometric variation reveals physical phenomena such as warpage, micro-cracks, deformation, or subtle surface irregularities. Semantic interpretation is constrained by physical behavior rather than visual appearance alone.

Function:
These capabilities enable applications such as circuit board and semiconductor inspection, fine geometric analysis, and navigation under fog or glare—without requiring neural-network training.


4. Semantic Development Layer

Goal:
Enable physics-anchored formation, maturation, and pruning of semantic structures.

Scope:
This layer establishes deterministic rules governing how meaning emerges from physically validated change. Semantic structures evolve over time based on stability, recurrence, and coherence, rather than statistical exposure or retraining cycles.

Function:
This approach differentiates the system from purely data-driven models by ensuring that semantic development remains grounded in physical evidence.


5. Environment-Conditioned Semantic Shaping

Goal:
Allow environmental conditions to influence semantic development without training.

Scope:
This layer introduces mechanisms by which context—such as operating domain, environmental exposure, or repeated physical conditions—can reinforce, suppress, or shape semantic interpretation over time.

Function:
It enables explainable specialization across domains (for example, circuit boards versus wafers versus robotics), while preserving deterministic behavior and avoiding opaque learning processes.


6. Object-Level Context and Lineage

Goal:
Bind physical change, semantic interpretation, and environmental influence to individual physical objects.

Scope:
Rather than treating images independently, this layer tracks how specific objects evolve across time, preserving history, progression, and auditability.

Function:
This capability is essential for manufacturing lines, conveyor systems, semiconductor lots, robotics, and any environment where traceability and long-horizon reasoning are required. It represents a significant competitive barrier to imitation.


7. System-Level Cognitive Supervision

Goal:
Govern the entire pipeline using physics-constrained logic to prevent unsupported inference.

Scope:
At the highest level, the system enforces multiple independent consistency checks before allowing higher-level reasoning or alerts. Cognitive activation is permitted only when physical evidence, temporal stability, and contextual agreement converge.

Function:
This layer establishes a safe, physics-grounded cognitive framework that never escapes verified evidence and avoids the uncontrolled behavior often associated with unconstrained statistical models.


Portfolio Interlock — The Big Picture

The patent portfolio defines a vertically integrated architecture:

Each layer depends on the integrity of the one below it. Removing or weakening any layer collapses the system’s ability to reason safely and explainably.


Patent Scope and Disclosure Notice

This page provides high-level summaries of selected United States and international patent filings related to the Phocoustic platform. These descriptions are intended for general informational and investor-relations purposes only. They do not reproduce claim language, algorithms, parameter values, or execution logic.

All specific methods, data structures, and functional relationships are defined exclusively in the filed patent applications and granted patents. Nothing on this page should be interpreted as limiting claim scope or providing an enabling technical disclosure beyond those filings.