Charge and Structural Polarity

In FM, charge is not treated as a separate substance stored inside matter.

It is understood as a structural asymmetry in how a stable configuration organizes the surrounding medium.

A stable structure such as an electron-vortex does not only exist as an internal pattern.
Its existence also requires FM to remain organized differently around it.
This surrounding difference is the local gradient signature of the structure.

Charge is therefore not an added ingredient.
It is the way a structure is coupled to its surroundings.

Structural polarity

Not all stable structures couple to FM in the same way.

Some structures organize the surrounding medium in one pattern.
Others organize it in the opposite pattern.

This polarity is not merely a label such as positive or negative.
It is a real difference in how the structure is oriented and how it presents itself at the interface with surrounding FM and other structures.

In FM, polarity is therefore a property of structure, orientation, and interface, not just amount.

Why structures interact

When two structures come near each other, their surrounding gradient fields overlap.

At that point, the outcome depends on compatibility.

If the meeting surfaces can reorganize FM coherently together, the structures can share support.
This strengthens the inward-directed gradient between them and allows attraction or binding.

If the meeting surfaces are incompatible, FM cannot reorganize coherently between them.
Support increases on the inner side, resistance grows, and the result is repulsion or non-binding.

The same gradient law acts on all structures.
What differs is whether the structures are compatible enough to share reorganization.

Attraction and repulsion

This gives a different way to understand attraction and repulsion.

Attraction does not require a mysterious pull from a distance.
It occurs when two structures can reduce reorganizational cost by forming a shared coherent interface.

Repulsion does not require a separate pushing force.
It occurs when two structures cannot share reorganization without collision or increased internal support.

So the difference is not in the law itself.
It is in the compatibility of the structures.

Why opposite structures can bind

Two opposite polarities can often approach more closely because their interface allows a cooperative reorganization of FM.

This does not mean they collapse completely together.

A limit still exists, set by:

the need to preserve vortex structure
the local reorganizational capacity of FM
the minimum space required for coherent support

Binding therefore occurs only within a permitted range where coherent reorganization remains possible.

Structures also do not bind randomly.
Where several orientations are possible, they tend to orient toward the strongest compatible gradient support.

This is why opposite structures bind in preferred ways rather than by arbitrary contact.

Why like structures resist

Like polarities can still be acted on by the same surrounding gradient, but their interface does not support shared reorganization.

As they approach, the meeting zone becomes increasingly difficult to maintain coherently.
The result is rising resistance to further approach.

This is why like structures repel or fail to bind.

Charge in matter

In atoms and molecules, charge and polarity appear through the way electron structures and nuclei together organize FM.

A neutral object may still contain local polarity.
A globally neutral structure can therefore remain internally organized and still participate in interaction.

Charge, polarity, binding and repulsion are not separate topics.
They are different expressions of how stable structures interact through the surrounding gradient field.

Why this matters for electricity

This view becomes especially important in electricity.

When an external gradient is applied:

all structures are affected
but not all respond the same way

Some interfaces remain coherent and stable.
Others lose support and reorganize.

This is the basis for:

current formation
chemical change in batteries
attraction and repulsion
and the transition from local structure to larger field effects

Final statement

In FM, charge is the structural asymmetry by which a stable configuration organizes its surroundings.

Polarity is the way this asymmetry presents itself at the interface between structures.

Interaction is then determined by compatibility:

compatible structures can share reorganization and bind
incompatible structures cannot, and resist or repel

Charge is therefore not a separate substance.

It is the observable signature of how structure and gradient belong together.