What is the clinical evidence from this study?

Study design: Other. Intervention: V=N/D cardiac scaffold design.

What question did this study set out to answer?

This research aims to establish a cardiac scaffold design that functions similarly to an automobile alternator on a biological scale.

June 16, 2026Open Access

The Living Engine: V=N/D Cardiac Design as a Biological Alternator-Integrated System

Key Result

A cardiac scaffold designed according to V=N/D replicates an alternator-integrated architecture at a biological scale, generating bioelectric potential without external power.

Key Points

This research aims to establish a cardiac scaffold design that functions similarly to an automobile alternator on a biological scale.
Design and analysis of a cardiac scaffold using V=N/D principles
Assessment of biomimetic electrocyte layer compression and its effects on bioelectric potential
The designed cardiac scaffold replicates the automobile alternator architecture
Compression of electrocyte layers generates measurable bioelectric potential
Ionic gradients are maintained without external energy sources, indicating efficiency in energy generation.

PICO

Intervention / Comparator

V=N/D cardiac scaffold design

Abstract

This paper demonstrates that a cardiac scaffold designed according to V=N/D replicates the automobile alternator-integrated architecture at biological scale. Density gradient drives spiral motion; motion compresses biomimetic electrocyte layers; compression generates bioelectric potential; potential maintains ionic gradients. The loop closes. External power becomes architecturally unnecessary — the body's ionic environment is both fuel and medium.