Experimental Trumpet Coil Series

Quantum AetherDynamics Institute (QADI) — A QMU/APM hub for trumpet coil geometry, rotating magnetic fields, fine-structure scaling, magnetic flux tubes, and black-hole analogues.

Series Overview

The Experimental Trumpet Coil series develops a physical and geometric bridge between laboratory-scale rotating magnetic-field structures and larger QMU/APM concepts involving fine structure, magnetic flux tubes, torsional closure, and black-hole field analogues.

In the Aether Physics Model (APM), field geometry is not merely a visualization of force behavior. It is part of the dimensional structure of physical law. The trumpet coil provides a practical experimental geometry for studying curved magnetic paths, rotating phase relationships, field concentration, flux-tube formation, and possible fine-structure scaling behavior.

This hub page groups the trumpet coil papers and related QADI work so that the series can be read as a coherent experimental program: trumpet coil geometry leads to rotating magnetic-field structure; rotating magnetic-field structure connects to fine-structure geometry; and the same magnetic flux geometry provides an analogue for black-hole toroidal fields, jets, and polar structure.

Central Research Thread

The guiding sequence of the series is:

trumpet coil geometry → rotating magnetic fields → fine-structure scaling → magnetic flux tubes → black-hole analogues

This sequence makes the trumpet coil series valuable because it connects bench-scale experimentation with QMU/APM field geometry. It gives the theory a practical apparatus through which magnetic rotation, phase relationships, flux confinement, and torsional closure can be examined.

Core Papers in the Series

Experimental Apparatus

The trumpet coil is valuable as an experimental form because it naturally combines curvature, axial direction, magnetic winding, and field concentration. Unlike a simple solenoid, the trumpet geometry suggests a variable-radius magnetic pathway, making it suitable for studying field gradients and asymmetric flux structure.

A three-phase trumpet coil adds controlled phase rotation. This creates a dynamic rotating magnetic field that can be studied for:

Fine-Structure Connection

The fine-structure constant is a central dimensionless quantity in QMU/APM because it connects electromagnetic interaction strength, charge geometry, and quantum-scale structure. The trumpet coil series is relevant to fine structure because it investigates physical geometries where magnetic rotation, phase, curvature, and torsion may appear as measurable field relationships.

The fine-structure connection can be summarized as:

In this context, fine structure is not only a numerical constant. It becomes a geometric and dimensional relationship that may be explored through magnetic field topology and rotating-field experiments.

Black-Hole and Jet Analogy

The bipolar trumpet coil model provides a laboratory analogue for the field geometry associated with black-hole environments. Black-hole systems are often described through toroidal magnetic fields, axial jets, accretion geometry, and polar outflows. The trumpet coil geometry provides a way to reproduce related field structures at laboratory scale.

The analogy is not based on matching gravitational mass. It is based on matching field geometry:

This makes the trumpet coil series an experimental bridge between QMU/APM magnetic geometry and astrophysical field structures.

Suggested Experimental Program

A systematic trumpet coil experiment should measure both ordinary electrical quantities and QMU-relevant field structure. The goal is to determine whether the trumpet geometry produces repeatable field organization that differs from simple solenoids, toroids, and flat spiral coils.

Measurement Purpose
Drive frequency Identifies frequency-dependent field organization and phase response.
Phase separation Tests three-phase rotating-field coherence.
Current and voltage Provides conventional electrical input data for QMU conversion.
Magnetic flux density Maps field strength and concentration along the trumpet geometry.
Axial field profile Tests jet-like or polar field concentration.
Toroidal field profile Tests circulating field structure and flux-tube behavior.
Thermal behavior Controls for heating and resistance effects.
Force or torque response Tests for mechanical coupling or asymmetry.
Control coil comparison Compares trumpet geometry to solenoid, toroid, and flat spiral controls.

Download Core Series Papers

Start with the core experimental papers:

Trumpet Coil Three Phase Trumpet Coil Bipolar Trumpet Coil Model for Black Holes Fine Structures in the APM

Recommended Reader Path

Readers should begin with Trumpet Coil, then continue to Three Phase Trumpet Coil, Fine Structures in the APM, and Bipolar Trumpet Coil Model for Black Holes. After that, Aether Propulsion via Magnetic Flux Tubes and Möbius Strip Analogy for Fine Structure provide the broader field-topology context.

Suggested Citation

Thomson III, David W. Experimental Trumpet Coil Series: Fine Structure, Magnetic Flux Geometry, and Black-Hole Analogues. Quantum AetherDynamics Institute (QADI).

Keywords

trumpet coil, three phase trumpet coil, bipolar trumpet coil, black-hole analogue, fine-structure constant, QMU, Quantum Measurement Units, Aether Physics Model, APM, magnetic flux tubes, rotating magnetic fields, curl, torsion geometry, field topology, magnetic charge, Maxwell equations, David W. Thomson III