Electromagnetism

An electron is a Tai Chi node that both flips and spins strongly. As it moves through the membrane (the outer skin of the time-string), its rotation drags neighboring patches of the membrane out of phase, sending out a wave of phase-change in every direction. We register that wave with charged probes and call it the electric field.

• Radio waves ($\sim 10^3$–$10^9$ Hz): slow, long-wavelength flips of large coherent groups of nodes. The radio antennas in your phone are millions of electron-nodes flipping in synchrony.
• Microwaves ($\sim 10^9$–$10^{12}$ Hz): faster flips. Match the natural flip-frequency of water nodes, which is why microwave ovens heat food.
• Infrared, visible light, ultraviolet ($\sim 10^{12}$–$10^{16}$ Hz): the flip-rates of electrons in atomic orbitals. Color is just the flip-rate the eye is registering.
• X-rays and gamma rays ($\sim 10^{16}$–$10^{22}$ Hz): the highest flip-rates, produced when nodes are violently shaken (atomic transitions, nuclear decays, particle annihilation). Gamma rays from matter–antimatter annihilation are the fastest pure-flip events the membrane can sustain.
• Static electric fields: the steady-state phase-tilt of the membrane around a charged node. Even though it does not propagate as a wave, it is still a flip configuration — frozen flip-tendency rather than running flip.
• Static magnetic fields (Earth's, magnets', planetary): the steady-state coherent-spin pattern of many electron-nodes flipping in concert. Their cumulative phase-tilt fills space and we register it as $\vec{B}$.
• Cosmic magnetic fields (galactic, intergalactic, primordial): the same mechanism scaled to galaxy-cluster size — coherent flips of $10^{60}+$ nodes leaving a phase-tilt that survives across billions of light-years.

Current, electric field, magnetic field — one disturbance

Why Maxwell's equations follow naturally

Maxwell's classical electromagnetism boils down to four equations — but the spirit of those equations is one statement: a change in electric field generates a magnetic field, and a change in magnetic field generates an electric field; both propagate together at speed c. In Supreme Polarity Theory this is automatic. Both "fields" are the same membrane wave seen from different angles, and the wave's speed is set by the membrane itself.

Why electric arcs glow blue

Strongly accelerated electrons (in lightning, electric arcs, plasma) flip the surrounding membrane at high frequency. The released photons have flip-rates that fall in the blue/violet band of the spectrum — which is exactly what we see in lightning bolts and arc discharges. Push the acceleration even harder and the flip-rate climbs into ultraviolet and X-ray territory; ease off and the photons drop into red and infrared. Color simply tracks the local violence of the spin-flip coupling.

Why Earth has a magnetic field

Earth's outer core is a sea of molten iron — trillions of electrons spinning together in convective currents driven by Earth's rotation. Their collective in-phase spin disturbs the membrane on a planetary scale. That disturbance, propagating outward, is Earth's magnetic field — the same picture as the standard dynamo effect, told in Supreme Polarity Theory language. The field protects the surface from the solar wind precisely because the planet's coherent spin maintains the membrane in a stable phase that the wind's incoherent particles cannot easily disrupt.

When the dynamo loses coherence (geomagnetic reversal events), the field weakens and may flip polarity — exactly what would happen geometrically when the dominant phase of the core's spin shifts.

Compton scattering, refraction, photon-matter interaction

When a photon (pure flip) meets a region of matter (flip + spin nodes), several things can happen. Compton scattering: the photon hits a free electron, the electron's spin grabs the photon's flip-pattern, slows it, and releases it with a longer flip-period — a redder color. Refraction: the membrane through glass takes longer to update because of the matter inside, so light's apparent speed drops (the membrane never actually exceeds c locally; it just covers less local distance per global tick). Absorption + emission: an electron absorbs a photon by reorganizing its spin to swallow the flip-pattern, and re-emits it later when its spin shifts again — this is the entire mechanism behind atomic spectra.