Top Tweets for #UNClimateScam

Exactly Thank you Fred BTW … the majority of people globally live in nations that did NOT sign up for UN Net Zero, or have since pulled OUT of UN Net Zero, or have NO INTENT of implementing UN Net Zero Same applies to UN Paris “Agreement”. Instead, each nation agreed to do whatever they want More nations are now dumping UN Net Zero & UN Paris Australians though under dishonest Liberal-Labor Uniparty governments are paying exorbitantly Please remember that Liberal-National Coalition governments introduced every major climate & energy policy. Starting with Howard government 1996-2007

Watch this video. The Coalition has a secret plan to keep net zero alive. It will stay in the Paris Agreement and continue pursuing emissions cuts, while Liberal moderates push to restore targets. How long before farmers and transport operators are hit with punishing targets? Some Liberal moderates are calling for a carbon tax. Slower net zero is still net zero.

Predictable orbital cycles map out a future of continued gradual cooling over the millennia (interrupted only by natural variability). This trend is heading toward eventual glaciation—but the anthropogenic CO₂ pulse significantly postpones or weakens that trajectory. This tempers the CO₂ 'hysteria' narrative by showing the influence of orbital rhythms setting the dominant long-term stage, with greenhouse gases acting more as amplifiers (whether natural or human-driven) rather than the sole drivers on these timescales. This scenario comes from mapping orbital cycles into future trends, a system devised by Milutin Milanković, the Serbian scientist who developed the theory about cyclical changes in Earth's orbit and axial tilt. These cycles demonstrate the evolution of eccentricity, obliquity (tilt), and precession, which drive changes in seasonal insolation (incoming sunlight) distribution—particularly Northern Hemisphere summer insolation at 65°N, the key latitude for ice sheet sensitivity. Eccentricity: a 100,000-year cycle modulating orbital shape from near-circular to more elliptical. Obliquity: where axial tilt follows a 41,000-year cycle from 22.1° to 24.5°. Precession: is a 19,000 to 23,000-year cycle where the axial wobble shifts perihelion timing (causing more intense summers). The Earth is now in a low-eccentricity period (orbit nearly circular), which dampens extreme seasonal contrasts. Obliquity is decreasing from its Holocene peak (around 10,000–8,700 years ago) towards a minimum projected in roughly 11,800 years from now (around 13,800 CE). The past peak contributed to higher Northern Hemisphere summer insolation, aiding the rapid transition from the last glacial age into the warmer Holocene Epoch—a period of abrupt climate shifts, megafaunal extinctions, and the rise of early human cultures like the Clovis people. The ongoing decline in obliquity is gradually reducing the amplitude of high-latitude summer insolation. Precession will continue its 21,000-year cycle, shifting when perihelion (the closest approach to the Sun) occurs. Over the longer term (10,000 to 50,000 years) a slow overall decline in peak summer insolation will continue, but without any imminent 'critical low' or widespread ice buildup. Classic projections (Berger & Loutre, 2002) suggest the current interglacial could last another 20,000–50,000 years naturally. Any onset of major Northern Hemisphere ice growth is unlikely before around 50,000 years from now. The current orbital setup (with low eccentricity plus moderate CO₂) keeps us in an 'unusually long' interglacial—similar to some past ones like MIS 11. This could push it back another 50,000 years or more, to 100,000+ years, as elevated CO₂ raises the insolation threshold needed for ice growth. This aligns with a critical insolation-CO₂ relationship (identified by Dr Andrey Ganopolski et al, a prominent climate scientist at the Potsdam Institute for Climate Impact Research). Glaciation requires summer insolation below a CO₂ threshold. Human caused anthropogenic CO₂ could override orbital minima that might otherwise trigger it. The Milanković orbital cycles provide one of the most robust, physics-based ways to project long-term climate trends. This is generally independent of shorter-term factors, like CO₂ variability. They focus on predictable changes in Earth's orbit and axial tilt that alter the distribution and intensity of solar insolation (incoming sunlight), especially in the Northern Hemisphere summer at high latitudes (65°N), where ice sheet growth/retreat is most sensitive. Orbital cycles drive insolation (incoming sunlight) changes by up to 25% seasonally at mid-high latitudes over millennia, though global annual totals vary much less by 0.1 to 0.7%. Paleoclimate data (using ice cores and sediments) show the glacial-interglacial cycles over the past 2.5 million years, with the 100,000-year eccentricity rhythm dominant in the late Pleistocene.