Propagation in the Field Medium

What propagation is

In the Field Medium (FM), propagation is not the transport of an object or substance.

Propagation is the sequential local reconfiguration of the medium.

A pattern does not travel as a persistent entity.
It is continuously re-established from one region to the next.

Local reconfiguration

Propagation unfolds as a chain of local events:

a region is driven out of equilibrium
a gradient forms relative to neighboring regions
this gradient induces reconfiguration in the next region

Propagation is therefore not a single moving process,
but a sequence of locally realized reorganizations.

The role of gradients

Propagation is driven by gradients.

A region undergoing reorganization creates a difference relative to its surroundings.
This difference induces change in neighboring regions.

A wave is therefore not an object that moves,
but a gradient that propagates through the medium.

Forward-directed propagation

Only the forward-directed component of reorganization is required for propagation.

A region does not need to reach full equilibrium before the next region is affected.

As soon as a sufficient forward gradient is established, propagation continues.

Propagation speed is therefore determined by how quickly a forward gradient can be formed.

Reconfiguration behind the front

After the propagating front has passed:

the medium is not fully restored
gradients relax
energy redistributes
equilibrium is approached

This process may be slower and more complex than forward propagation.

It can also produce:

secondary flow
bending
vortex formation

The propagation limit

There is a maximum rate at which coherent reconfiguration can propagate.

This defines the propagation limit, observed as c.

This limit is set by:

how fast local reorganization can influence neighboring regions
how quickly a forward gradient can be established

It is not determined by motion of objects, but by the intrinsic behavior of the medium.

Structured media

In structured regions (such as matter):

additional reorganization is required
local structures must respond
internal stability resists change

This reduces the effective propagation speed.

Propagation depends on how efficiently reorganization can be transferred forward relative to structural resistance.

Propagation and structure formation

Propagation is not always purely forward.

In complex conditions:

gradients interact
flow bends
local circulation can emerge

When propagation closes upon itself, stable circulating structures form.

This is the origin of vortex-based structures in FM.

Connection to core principles

Propagation is one of the three central aspects of the model:

Process rate → determines how fast local reorganization can occur
Propagation → determines how reorganization moves
Gradient → determines how conditions vary across space

Summary

Propagation in the Field Medium is the sequential local reconfiguration of a continuous medium, driven by gradients and limited by the intrinsic rate at which reorganization can spread.

no substance is transported
only organization is transferred
forward gradients determine speed
full reorganization continues behind the front
structured regions reduce effective propagation

Propagation describes how reorganization moves.
To understand why it behaves differently across space, we must consider gradients.

Observable consequences

The propagation behavior described here is observed as:

constant propagation speed of light
signal delay in structured environments
directional propagation limits

👉 See detailed analysis in Phenomena →