[Paper Review] Induction of Forces Performed by Piezoelectric Materials

Elio B. Porcelli, Victo S. Filho|arXiv (Cornell University)|Dec 6, 2016

Numerical methods in engineering5 references3 citations

TL;DR

This paper proposes that piezoelectric materials generate external forces through a mechanism rooted in generalized quantum entanglement between the material's molecular structure and its environment, rather than via conventional electromagnetic or acoustic coupling. The induced forces arise directly from applied electric fields or mechanical stress, with directionality determined by the field or stress vector, and the phenomenon is theoretically explained through non-local quantum correlations.

ABSTRACT

We describe the phenomenon of generation of an external field of forces from piezoelectric materials subjected to the application of electric fields or mechanical stress. The piezoelectric materials are shown as being capable of producing induction forces in external objects and we conclude that the nature of the forces generated are not originated from the traditional interactions. Further we specifically assert that the generation of forces by the piezoelectric materials is ruled by the hypothesis of preexisting condition of generalized quantum entanglement between the molecular structure of the material bulk and the surrounding environment. In addition the widely spread coupling of the molecules with the environment can be manifested from the so-called direct effect or the converse effect in piezoelectric materials and this coupling is not intermediated by acoustic waves or electromagnetic fields. We show that the novel effect has a theoretical explanation consistent with the generalized quantum entanglements and the direction of the induced forces depends on either the direction of the mechanical force or the electric field applied in these materials.

Motivation & Objective

• To investigate the origin of external force generation in piezoelectric materials beyond conventional electromechanical coupling.
• To challenge the assumption that forces in piezoelectrics arise solely from acoustic waves or electromagnetic fields.
• To propose a novel mechanism based on preexisting quantum entanglement between the material bulk and its environment.
• To establish a theoretical framework for force induction that accounts for directionality based on applied electric or mechanical stimuli.
• To demonstrate that the observed force induction is not mediated by known field interactions, but by non-local quantum correlations.

Proposed method

• Theoretical modeling based on generalized quantum entanglement between the piezoelectric material's molecular structure and its surrounding environment.
• Analysis of both direct and converse piezoelectric effects as manifestations of the same underlying entanglement mechanism.
• Use of quantum field theory concepts to describe force induction without mediation by electromagnetic or mechanical waves.
• Derivation of force directionality from the vector orientation of applied electric fields or mechanical stress.
• Application of the hypothesis to explain force induction in external objects without observable energy transfer via photons or phonons.
• Comparison of the proposed mechanism with classical piezoelectric theory to highlight its non-conventional nature.

Experimental results

Research questions

• RQ1 What is the fundamental origin of external force generation in piezoelectric materials when no conventional fields or waves are present?
• RQ2 How can forces be induced in external objects by piezoelectrics without electromagnetic or acoustic wave mediation?
• RQ3 Why does the direction of the induced force correlate precisely with the direction of the applied electric field or mechanical stress?
• RQ4 Can the phenomenon be explained by a preexisting quantum entanglement between the material and its environment?
• RQ5 What distinguishes this force induction mechanism from classical piezoelectric effects?

Key findings

• Piezoelectric materials can induce external forces in surrounding objects without relying on electromagnetic or acoustic wave propagation.
• The direction of the induced force is determined by the vector direction of the applied electric field or mechanical stress.
• The mechanism is attributed to a preexisting condition of generalized quantum entanglement between the material’s molecular structure and its environment.
• The force induction effect is not mediated by photons or phonons, distinguishing it from conventional electromechanical interactions.
• The theoretical framework supports the existence of non-local quantum correlations as the origin of the observed force generation.
• The phenomenon is consistent across both direct and converse piezoelectric effects, indicating a unified underlying mechanism.