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Electric Universe

The Electric Galaxy — Birkeland Currents, No Dark Matter

Updated 2026-06-12
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A spiral galaxy is one of the most beautiful objects in nature — and, for the standard model, one of the most troublesome. Its stars orbit so fast that gravity from the visible matter should fling them apart; to hold them in, astronomers invoke a vast halo of dark matter that has never been directly detected. At its heart sits something four million times the Sun's mass crammed into a point: a supermassive black hole. The Electric Universe proposes a different galaxy entirely — one wired together by electric currents, needing no dark matter to spin and no black hole at its core. This page presents that picture on its own terms.

The galaxy as a circuit

The model descends directly from the plasma-universe lineage. Hannes Alfvén argued that because the cosmos is almost entirely plasma — an electrical conductor — it must carry electric currents, and that those currents flow along magnetic field lines as Birkeland currents, the same field-aligned currents that power Earth's aurora (observed, real, ~10⁵–10⁶ amperes). Scale that physics up, the school says, and a galaxy becomes a node in a circuit: energy and angular momentum are delivered electromagnetically along filamentary "cosmic power lines" and released locally at double layers, rather than assembled slowly by gravity. The galaxy doesn't fall together — it gets wired together.

Peratt's galaxies in the supercomputer

The model's centerpiece is Anthony Peratt's work at Los Alamos. He ran fully electromagnetic particle-in-cell simulations of two parallel Birkeland filaments, each carrying ~10¹⁸ amperes, interacting across cosmic distances. The filaments attract and twist, and over hundreds of millions of simulated years the plasma evolves through forms resembling double radio galaxies → quasars → spiral galaxies — published in IEEE Transactions on Plasma Science (Part I and Part II, Dec. 1986) and collected in Physics of the Plasma Universe (Springer, 2nd ed. 2015). The claim that matters here: Peratt reported his simulated spirals had flat rotation curves arising electromagnetically — no dark-matter halo required.

Peratt's simulation modeled a region about 10 kpc across — a computational proof of concept rather than a whole galaxy — and the flat rotation curve it produced was qualitative. What it demonstrates is a mechanism: that interacting current filaments can grow galaxy-like forms and flat rotation profiles with no dark-matter halo anywhere in the calculation.

Scott's "cosmic power lines"

The one genuinely peer-reviewed galactic-current result is Donald Scott's "Birkeland Currents: A Force-Free Field-Aligned Model" (Progress in Physics, 2015). Working from the standard force-free-field equations, Scott derives a striking structure: a Birkeland current is not a simple wire but a set of nested, counter-rotating cylindrical shells, the magnetic field winding the axis with ever-steeper pitch as you move outward. He points to observed counter-rotating structures in galaxies and around planets as the visible signature of these currents.

Precision worth keeping: Scott's paper derives field structure and predicts counter-rotation — it does not itself claim to explain rotation curves or replace dark matter. That larger framing ("dark matter? no — Birkeland currents") lives in his conference talks and interviews below, not in the peer-reviewed text. We keep the two apart.

The center: a plasmoid, not a black hole

If a galaxy is a z-pinch — a current filament squeezing plasma to enormous density — then its core, in Wal Thornhill's reading, is not a black hole but a plasmoid: a self-confined, ultra-dense knot of stored electromagnetic energy, a structure well known in plasma laboratories (the dense plasma focus). The plasmoid stores energy and periodically releases it, firing collimated jets and — the model says — ejecting matter as quasar "children" along the spin axis. Thornhill reads Sgr A*'s high-energy emission as synchrotron radiation from the circulating plasmoid, and its roughly periodic X-ray flares as the beat of a circuit rather than the chaos of infall. This is the same object the black-holes page treats from the relativity side; here it is the galaxy's power plant.

The model leans on Halton Arp's claim that high-redshift quasars are ejected from the nuclei of nearby low-redshift galaxies — the galactic plasmoid giving birth to quasars in pairs — which, if true, would also dismantle the redshift-distance ladder behind the big-bang (Arp's own statement of the case).

Filaments that define structure

On the largest scale the school reads the cosmic web as a network of Birkeland-current filaments, and points to a striking discovery near our own galactic center: the Yusef-Zadeh radio filaments, a population of nearly a thousand magnetized, often evenly spaced, harp-like strands threading the inner galaxy, mapped by the MeerKAT array (Yusef-Zadeh et al. 2022). To EU eyes these magnetized, current-like filaments are field-aligned currents made visible.

The Plasma Universe — Birkeland, Alfvén, Peratt

Do Black Holes Exist? — The Crothers Case

Did the Big Bang Happen? — The Plasma-Cosmology Dissent

The Electric Sun

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Section:
Electric Universe
Updated:
2026-06-12

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