Electric Universe
| Scientific Theory | |
|---|---|
| Name | Electric Universe |
| Type | Alternative cosmology / plasma cosmology |
| Author(s) | Ralph Juergens, Wallace Thornhill, David Talbott, Donald E Scott and others |
| Keywords | plasma cosmology, electric sun, Birkeland currents, z-pinch, cosmology, plasma |
| Year | 1970s–present |
| Website | https://www.thunderbolts.info/ |
The Electric Universe (EU) is a body of alternative cosmological ideas holding that electricity and plasma, rather than gravity acting alone, are the dominant organizing forces in the cosmos. Its proponents argue that electric currents flow through space on all scales — powering stars, shaping galaxies, and driving phenomena that conventional astrophysics explains through gravity, nuclear fusion, or entities such as dark matter and black holes.
The Electric Universe is not accepted by mainstream astrophysics. On this wiki it is documented as a serious alternative research programme, with over 190 entries in the Electric Universe category. Because the label covers claims of very different evidential standing — some resting on established plasma physics, some on laboratory work, and some on speculation well beyond either — this article tries to keep them apart.
Core ideas
- Plasma is the normal state of matter. Something like 99% of the visible matter in the universe is ionized plasma, an electrically conducting medium whose behaviour is governed by electromagnetic forces. The electrostatic force between two protons exceeds their gravitational attraction by a factor of about 1036.
- Cosmic electric currents. Space is threaded by currents and their magnetic fields, chiefly as Birkeland currents — field-aligned currents that pinch plasma into filaments and organize matter into the observed cosmic web.
- The Electric Sun. The Sun and other stars are held to be powered, wholly or partly, by external galactic currents rather than solely by internal thermonuclear fusion. The idea originates with Ralph Juergens in the 1970s.
- Electric comets and planets. Cometary jets and comas, planetary surface features such as craters and rilles, and events including lightning and aurorae are interpreted as electrical-discharge phenomena.
- Challenges to standard cosmology. EU proponents reject the Big Bang and argue that cosmological redshift, dark matter and dark energy are misinterpretations, often citing Arp's intrinsic-redshift work.
The physics it builds on
A distinctive feature of the EU is that its foundations include several results that are entirely orthodox, and it is worth separating these from the extrapolations built on them.
Birkeland currents are real. Kristian Birkeland proposed around 1908 that field-aligned currents connect the Sun to Earth's polar regions, producing the aurora. The idea was dismissed for decades — Sydney Chapman's opposing view prevailed — until satellite magnetometers confirmed it directly in 1973–74. This is a genuine case of a rejected outsider being vindicated by measurement, and the EU cites it with justification.
Alfvén's plasma physics is Nobel-recognised. Hannes Alfvén received the 1970 Nobel Prize for magnetohydrodynamics, and spent much of his later career arguing that astrophysics relied too heavily on idealised "frozen-in" magnetic fields and neglected double layers, current sheets and laboratory-scalable plasma processes. Those criticisms are on the record and are partly conceded today: magnetic reconnection, once resisted, is now central to solar and magnetospheric physics.
Z-pinch and filamentation are laboratory physics. The pinch effect, plasma instabilities and the filamentary structures the EU appeals to are studied in fusion laboratories and reproduce at very different scales — a scaling property Alfvén emphasised.
What is contested is not this foundation but the magnitude and role of cosmic currents: whether they are energetically dominant at stellar and galactic scale, or a secondary effect within a gravitationally organised universe.
Intellectual roots
The EU overlaps with the older tradition of plasma cosmology associated with Alfvén, Birkeland, and Anthony L Peratt, whose particle-in-cell simulations model galaxy formation from interacting current filaments. It also draws on the catastrophism of Immanuel Velikovsky and on the "Saturn theory" of ancient planetary configurations developed by David Talbott — a lineage documented here in Alfred de Grazia's The Age of Velikovsky. The electric-star hypothesis was advanced in the 1970s by Ralph Juergens, and the broader synthesis developed from the 1990s chiefly by Wallace Thornhill and Talbott.
On this wiki
The category holds over 190 entries. Among the more substantive:
- Anthony L Peratt, "Characteristics for the Occurrence of a High Current Z-Pinch Aurora as Recorded in Antiquity" and its Part II — published in IEEE Transactions on Plasma Science (2003), arguing that Neolithic petroglyphs worldwide record the same morphologies as high-current z-pinch instabilities, implying an intense aurora if the solar wind had been one to two orders of magnitude stronger. Also his Advanced Topics on Astrophysical and Space Plasmas.
- Donald E Scott, "An Electric Universe View of Stellar and Galactic Formation" (2012) — relates Marklund convection and Bostick's plasma-focus experiments to the hourglass shapes of planetary nebulae, arguing star and galaxy formation differ only in scale.
- C J Ransom, "Laboratory Modeling of Meteorite Impact Craters by Z-pinch Plasma" (Open Astronomy Journal, 2011) — laboratory production of centimetre-scale crater analogues by electrical discharge, extending earlier sub-millimetre work, and "On the Rapid, Electrical Formation of Concretions Containing Soft-Bodied Fossils".
- Wallace Thornhill, Electricity or Gravity: Which Rules the Universe? (2009), and with Talbott The Electric Universe (2007) and Thunderbolts of the Gods.
- Donald E Scott, The Electric Sky; and "Considering the Electric Sun".
- Related work by Charles E R Bruce, Bo Lehnert, Clint Seward and Bruce Leybourne.
Testable claims and their outcomes
The EU's strongest suit is that parts of it make predictions, and several have been tested.
Deep Impact (2005). Ahead of NASA's impactor striking comet Tempel 1, Thornhill predicted an electrical discharge flash before contact and an outburst more energetic than a purely mechanical collision would give. A small flash was indeed seen shortly before the main impact flash, and the ejecta surprised the mission team. EU advocates treat this as a confirmed prediction. The mainstream account attributes the two-stage flash to the impactor striking a very fine, highly porous surface layer before penetrating denser material — a reading the observations also support. The honest position is that the prediction was not quantitative enough to discriminate between the two explanations.
Rosetta and comet 67P (2014–16). EU proponents predicted that 67P/Churyumov–Gerasimenko would prove rocky, with no substantial water ice on or below the surface, its jets being electrical rather than sublimation-driven. The comet's rocky appearance was initially claimed as support, but Rosetta subsequently detected exposed water ice at the surface in several regions and mapped large-scale sublimation-driven outgassing. This is a failed prediction, and it should be recorded as such.
Peratt's petroglyph work remains the programme's most unusual empirical claim, and it is at least stated precisely enough to be examined: a specific catalogue of plasma-instability morphologies is compared against a specific corpus of rock art. The obvious objection is that the comparison rests on visual resemblance between simple geometric forms, which invites confirmation bias, and that no independent dating or physical trace of the proposed super-aurora has been produced.
Assessment
The EU's most valuable contribution is methodological: the insistence that astrophysics should take laboratory plasma behaviour seriously, that electrodynamics does not simply switch off at astronomical scale, and that idealisations such as perfectly frozen-in fields deserve scrutiny. That case was made forcefully by Alfvén and is not fringe.
The programme's central difficulty is the Electric Sun, because it is the point where a decisive measurement exists.
- Solar neutrinos. If the Sun is powered externally, its core fusion rate must be far lower than the standard model requires. The historic "solar neutrino problem" was once cited in support of exactly this. It was resolved in 2001–02 when the Sudbury Neutrino Observatory measured the total neutrino flux across all three flavours and found it matched the fusion-powered prediction; the apparent deficit was neutrino oscillation, not a shortfall in fusion. The Sun's nuclear power output is therefore now a measured quantity, and it accounts for the luminosity.
- Helioseismology independently maps the Sun's internal sound-speed profile, which agrees with the fusion-powered model to a fraction of a per cent.
- The required current is not observed. An externally powered Sun needs an enormous inward current. Spacecraft have sampled the solar wind directly for decades; the net flow is outward, and no inbound current of the necessary magnitude has been detected.
Beyond the Sun, the general objection is that the EU rarely produces numbers. Standard cosmology, whatever its difficulties, predicts the cosmic microwave background spectrum (measured by COBE/FIRAS as a blackbody to about 50 parts per million), the primordial light-element abundances, and the acoustic peak structure to several significant figures. The EU literature catalogued here offers explanations of these after the fact rather than quantitative alternatives, and where it has committed to a prediction — 67P — it has sometimes been wrong.
A distinction worth preserving, which some advocates draw themselves: plasma cosmology is not the Electric Universe. Alfvén, Peratt and Eric J Lerner work within peer-reviewed plasma physics and do not propose an externally powered Sun; the EU's more speculative claims about comets, planetary catastrophism and mythology are a separate body of work that the plasma-cosmology literature does not endorse. Readers evaluating this material will find that distinction useful.