THE ACHILLES’ HEEL OF EVERY SYSTEM

No matter how big.
No matter how expensive.
No matter how sophisticated.

Every component has the same weakness.

It must let energy in.

POWER enters. SIGNALS enter. VIBRATION enters. FIELDS enter.

The problem is not that the component is poorly designed.

The problem is that no component operates in isolation.

Everything is relative and reactive to each other.

Every component is part of a larger electrical and mechanical ecosystem.

And every connection is a doorway.

“ THE PROBLEM IS‍ ‍ALL‍ ‍INTERNAL”

The patented 3D² material simultaneously works both on the mechanical and electrical domains of our much loved Hi-Fi system. 3D² multi-layer construction dampens mechanical vibration through constrained-layer interaction; with its electrically differentiated, self-insulating layers creating a distributed capacitive structure capable of coupling with unwanted energy already present within the system. In doing so, the material can interact with electrical fields, temporarily store energy and provide pathways through which unwanted energy can be redirected toward dissipation. Effectively earthing the unwanted noise.

3D² ARCHITECTURE

DAMPENS MECHANICAL VIBRATION

Through constrained-layer interaction, mechanical vibration causes relative movement between layers. This creates internal shear, converting a portion of vibrational energy into heat.

ACTS AS A DISTRIBUTED CAPACITIVE STRUCTURE

The material's electrical properties allow it to interact capacitively with unwanted energy already present within the component or system—particularly energy seeking an available pathway through which to move or dissipate.

COUPLES WITH UNWANTED ELECTRICAL ENERGY

Multiple electrically separated layers within the 3D² material create a network of capacitive interfaces throughout its structure. Rather than behaving as a single capacitor, the material acts as a distributed electrical architecture, with capacitance occurring across multiple adjacent surfaces and material boundaries.

When exposed to electrical fields surrounding a component, these interfaces can become electrically coupled to that environment. Energy associated with those fields can be temporarily stored across the material's capacitive interfaces, changing the way electrical energy is distributed and moves within the immediate environment.

The result is not a direct conductive connection or conventional electrical circuit. Instead, interaction occurs through the electric field itself—allowing the material architecture to influence electrical energy without requiring current to flow directly through the material.

ALONG THE ‘PATHWAY TO PURITY’