The Plasma Universe — Birkeland, Alfvén, Peratt

Every heterodox theory has an origin story; the Electric Universe's runs through three generations of real, working plasma physicists. None of the three endorsed everything now claimed under the EU banner — an honest map keeps that distinction — but the lineage from Kristian Birkeland to Hannes Alfvén to Anthony Peratt supplies the theory's scientific spine: laboratory-tested plasma behavior, scaled up to the cosmos.

Kristian Birkeland: currents from space

Norwegian physicist Kristian Birkeland (1867–1917) did something almost unheard of in his era: he tested a cosmic theory in a vacuum chamber. His terrella experiments — a small magnetized sphere bombarded with cathode rays in a near-vacuum — reproduced auroral rings, and his observations during the Norwegian Aurora Polaris Expedition of 1902–1903 led him to propose that the aurora is powered by electric currents flowing along Earth's magnetic field lines from space.

The astronomical establishment of his day (notably Sydney Chapman's school) rejected currents from space for decades. Vindication came posthumously: in 1973–74 the U.S. Navy satellite Triad measured the magnetic signatures of exactly such field-aligned currents, and they have been called Birkeland currents ever since. The term is now standard space physics — every textbook on magnetospheres uses it. Birkeland's portrait later appeared on Norway's 200-kroner banknote, terrella and all.

For EU proponents, Birkeland is the template case: an electrical explanation, dismissed for half a century, confirmed by in-situ measurement. The field-aligned, filamentary current he discovered is the structural element the rest of the theory scales up.

Hannes Alfvén: the dissident laureate

Swedish physicist Hannes Alfvén (1908–1995) founded the discipline that mainstream astrophysics itself runs on. He predicted magnetohydrodynamic waves — Alfvén waves, now observed throughout the heliosphere — and received the 1970 Nobel Prize in Physics for fundamental work in magnetohydrodynamics and plasma physics.

What makes Alfvén the pivotal figure here is what he did with the prize lectern: he used his Nobel lecture to warn astrophysics against the misuse of his own mathematics — in particular the "frozen-in field" idealization, which treats cosmic plasma as a perfectly conducting fluid in which magnetic fields are locked to the gas and electric fields can be ignored. Real plasmas, he insisted from a lifetime of laboratory and magnetospheric work, are not ideal: they form double layers (thin charge-separated structures that can accelerate particles to enormous energies — he later proposed them as a distinct astrophysical object), carry field-aligned currents, and organize into cellular, filamentary structures that fluid pictures erase. His program — pursued in Cosmic Plasma (1981) and a stream of papers — was an electromagnetically structured "plasma universe": galactic-scale circuits, currents as energy carriers, and an explicit rejection of the Big Bang in favor of a hierarchical cosmology he developed with Oskar Klein.

Mainstream cosmology absorbed his plasma physics and declined his cosmology. EU proponents take the opposite view: that the warning in the Nobel lecture was correct and unheeded, and that astrophysics still mistakes magnetic effects for causes while ignoring the currents that generate them.

Anthony Peratt: galaxies in the supercomputer

Anthony L. Peratt, a student and collaborator of Alfvén's who worked at Los Alamos National Laboratory, gave the plasma universe its most concrete calculation. In the early 1980s he ran particle-in-cell supercomputer simulations of two parallel, current-carrying plasma filaments — Birkeland currents of order 10¹⁸ amperes — interacting across cosmic distances. The filaments attract, twist, and pinch, and the simulated plasma evolves through forms that look strikingly like double radio galaxies, quasars, and finally spiral galaxies, with rotation profiles that proponents note required no dark matter to flatten.

He published the results in the peer-reviewed literature — "Evolution of the Plasma Universe" parts I and II, IEEE Transactions on Plasma Science, December 1986 — and synthesized the program in Physics of the Plasma Universe (Springer, 1992; reissued 2015). The IEEE plasma-science community remained a venue for plasma-cosmology work through several special issues, a fact proponents cite against the charge that the approach never saw peer review.

In the 2000s Peratt turned to a stranger question: whether ancient petroglyphs worldwide record the appearance of an intense auroral z-pinch — a high-energy plasma column over the pole — publishing his case in the same IEEE venue (2003). That work is controversial even among sympathizers, but it built the bridge the Thunderbolts school would cross between plasma physics and mythology.

From plasma cosmology to the Electric Universe

The EU movement treats these three as its foundation — then extends them. Alfvén's circuits and Peratt's filaments concern galaxies and large-scale structure; the Electric Universe adds the electric Sun, electric comets, and planetary discharge scarring, claims the lineage's members did not themselves make. A fair reading keeps the layers distinct: plasma cosmology (Alfvén, Peratt) is a published, argued, minority scientific program; the Electric Universe is a broader edifice built on it. The next pages take its boldest extensions one at a time.

Related pages

The Electric Universe — An Introduction

The Electric Sun

The Thunderbolts Project — People and History

Sources & further reading

• Kristian Birkeland, The Norwegian Aurora Polaris Expedition 1902–1903 (1908/1913) — public domain

• Hannes Alfvén, Nobel lecture (1970); Cosmic Plasma (Reidel, 1981); "Double layers and circuits in astrophysics" (1986)

• Anthony L. Peratt, "Evolution of the Plasma Universe I & II," IEEE Transactions on Plasma Science PS-14 (Dec. 1986); Physics of the Plasma Universe (Springer, 1992)

• plasma-universe.com — the lineage's reference site