8 overlapping cycles from 11 years to 100,000 years, showing Earth's current position in each. Solar activity, climate oscillations, orbital mechanics, and the Great Year — all computed from known science.
The most directly observable cosmic cycle. Sunspot counts rise and fall in roughly 11-year intervals as the Sun's magnetic dynamo oscillates.
At solar maximum: more flares, coronal mass ejections, aurora visible at lower latitudes, satellite disruptions, radio blackouts. At solar minimum: quieter space weather, slightly lower irradiance.
Direct daily sunspot observation since 1610 (Galileo). Modern space-based monitoring via NASA SDO, NOAA SWPC. The best-documented cosmic cycle.
A century-scale modulation of the sunspot cycle. Some 11-year cycles are strong (Cycle 19 in 1958: sunspot number peaked at 285), others weak (Cycle 24: peaked at 116).
When Gleissberg is at minimum, individual solar cycles are weaker. This correlates with historical climate anomalies on century timescales.
Statistical analysis of 400+ years of sunspot records. First identified by Rudolf Wolf (1862), refined by Wolfgang Gleissberg (1939).
A ~200-year rhythm in solar activity detected through cosmogenic isotopes — radioactive carbon-14 in tree rings and beryllium-10 in ice cores. When the Sun is quiet, more cosmic rays reach Earth, producing more of these isotopes.
Responsible for the most intense grand solar minima (Maunder, Sporer, Wolf). These minima correlate with the coldest periods of the Little Ice Age.
Tree ring analysis (dendrochronology) and ice core records spanning 10,000+ years. Detected independently by Suess (1965) and de Vries (1958).
A long-wave oscillation that modulates how often grand solar minima occur. Named after the Hallstatt culture cold period in central Europe (~800-400 BCE).
Correlates with major civilizational transitions — the ~2,300-year rhythm appears in glacier records, tree rings, and archaeological evidence.
Cosmogenic isotope records spanning the Holocene. Pattern recognition across multiple paleoclimate archives. Clilverd et al. (2003).
Rapid climate oscillations recorded in North Atlantic ocean sediments. Ice-rafted debris layers show periodic cold snaps throughout the Holocene. The most recent: the Little Ice Age.
Bond Events correlate with civilizational collapse: 4.2kya event ended the Egyptian Old Kingdom and Akkadian Empire. The 8.2kya event disrupted early agriculture.
North Atlantic deep-sea sediment cores. Bond et al. (1997) Science. Ice-rafted debris counts from ocean floor. 8 events documented across 11,000 years.
Earth's rotational axis traces a circle in space like a wobbling top, completing one revolution in ~25,920 years. This is the "Great Year" of ancient astronomy.
Changes which hemisphere has summer at Earth's closest approach to the Sun. Also shifts the pole star over millennia (Polaris today; Vega in ~12,000 years). Foundation of astrological ages.
First measured by Hipparchus (~130 BCE). Confirmed by every subsequent astronomical tradition. Modern astrometry provides sub-arcsecond precision.
Earth's axial tilt oscillates between 22.1° and 24.5°. Currently at 23.44° and decreasing. More tilt = more extreme seasons. Less tilt = milder seasons but favors polar ice accumulation.
Before 1 million years ago, this was the PRIMARY driver of ice ages. Still affects monsoon intensity and high-latitude habitability.
Calculated from gravitational mechanics (Moon and Sun torque on Earth's equatorial bulge). Laskar et al. (2004). Confirmed by paleoclimate records.
Earth's orbit oscillates between nearly circular and more elliptical due to gravitational tugs from Jupiter and Saturn. Currently relatively circular (e=0.0167) and decreasing.
The primary pacemaker of Pleistocene ice ages over the past million years. Controls how much total solar energy Earth receives annually.
Orbital mechanics (Hays, Imbrie, Shackleton 1976). Confirmed by ice core records from Vostok and EPICA spanning 800,000 years.
These cycles do not predict markets, earthquakes, or human events. Phase position is astronomical fact; meaning you assign to it is interpretation. UET's integrity depends on honest reporting.
When UET tested its own cosmic-to-market correlation claims against real data, the results were not significant. We report this because science that hides its failures isn't science — it's marketing. The cycles shown on this page are astronomically real. Their connection to markets is not validated.
What IS validated: Phase positions are computed from known orbital mechanics, direct solar observation, and paleoclimate proxy records. These are real physical cycles with real effects on Earth's climate system over geological timescales.
What is NOT validated: Any connection between these cycles and stock markets, cryptocurrency prices, human behavior, or short-term weather events. Correlation claims require large sample sizes and replication — neither of which exist for cosmic-market hypotheses.
Each cycle has a reference epoch (a known event in the cycle) and a period. Phase position = time elapsed since reference, modulo period. For Milankovitch cycles with known current values (obliquity: 23.44°, eccentricity: 0.0167), phase is normalized within the known min/max range.
PHI-weighted average. Measured cycles (direct observation) are weighted at PHI² = 2.618. Calculated cycles (orbital mechanics) at PHI = 1.618. Estimated cycles (paleoclimate proxies) at 1.0. Activity = distance from cycle midpoint. Extremes indicate transitional phases; midpoints indicate stability.
The Great Year (25,920 years) generates sacred numbers found across ancient traditions:
72 years per degree of precession. 72 × 30 = 2,160 (one age). 12 ages × 2,160 = 25,920 (full cycle). These numbers appear in the Bible (72 disciples, 144,000 sealed), Egyptian architecture (Great Pyramid base: 756 ft = 72 × 10.5), and ancient astronomical traditions worldwide.