I hope you don’t mind if I focus on what seems to be the most important things you’re saying.
That is left-hemisphere thinking. To understand 2PC, you need to engage the right hemisphere. It requires a gestalt shift, and if you cannot get past the opening premise then the shift can’t happen.
There are at least 12 major interpretations of QM, and many more variations on those themes. In nearly all of these cases, the interpretation has been proposed purely as a solution to the Measurement Problem, with little or no attempt to integrate with anything else (such as the hard problem of consciousness or the crisis in cosmology). On their own, none of them can assemble a consensus, because there are too many of them, and because none of them are empirically testable.
2PC is different. It begins with a new interpretation (which is a combination of two existing ones), but instead of just leaving things there, it goes on to explain why this metaphysical proposal leads to an integrated solution to over 30 different problems in science and philosophy. Not 30 different solutions to 30 problems, but one solution to 30 problems.
This is exactly how major paradigm shifts are supposed to work. Not piecemeal progress or fragmentary truths, but a whole new way of looking at things which reframes the old problems so suddenly everything makes much more sense. Heliocentrism was like this. So was evolution. This isn’t a weakness.
Okay, this is another problem, the need for a conscious being to interact, for there to be a “present”. What occurred before there was conscious beings on earth, was time not passing then?
This question suggests you have not yet understood the basic framework I am proposing (and I don’t mean that in a negative way, it is just a fact). What we think of as “before” the first conscious being (LUCAS, 555mya), isn’t really “before”. Mainstream science tells us that the cosmos existed for 13bn years before then, and it is assumed without question that this history was classical-relativistic. It is assumed that it unfolded temporally forwards, under the dynamic influence of the laws of General Relativity. In 2PC, that is not true. Phase 1 of 2PC (which includes the entire pre-LUCAS history) only ever existed ontologically as Phase 1. It existed only as Phase 1 information describing one possible timeline through an MWI-like block of possible histories. Nothing ever experienced it, and no time passed. The entire 13bn year history was selected as a block. So from the perspective of LUCAS, the whole of cosmic history was a giant synchronicity with the sole purpose of leading to its own evolution (“psychegenesis”). Of course, LUCAS couldn’t understand any of that, because it was the size of a grain of rice, but you know what I am saying.
This mechanism explains both abiogenesis and the evolution of consciousness. It also predicts that the Phase 1 history of the Earth should contain a series of unbelievably improbable events – this would be the signature of psychegenesis. And this is exactly what we do see.
The Psychetelic Principle | Two-Phase Cosmology
Why did psychegenesis happen on Earth, rather than somewhere else? The Psychetelic Principle tells us that we should expect the Earth to be special, but it doesn’t tell us exactly what is special about Earth. It makes an empirical prediction: if the model is correct, then there should have been multiple exceptionally improbable events in Earth’s phase 1 history. These, if they exist, would be signatures of psychegenesis. There are many examples, the most extreme of which are these four:
1. Eukaryogenesis: The Singular Emergence of Complex Cellular Life
Eukaryogenesis is the origin of the eukaryotic cell via the endosymbiotic incorporation of an alpha-proteobacterium (the precursor to mitochondria) into an archaeal host, and it appears to have happened only once in Earth’s entire 4-billion-year history. Without it, complex multicellularity (and thus animals, cognition, and consciousness) would not have emerged. The energetic advantage conferred by mitochondria enabled the explosion of genomic and structural complexity. No similar event is known to have occurred elsewhere in the microbial biosphere, despite vast diversity and timescales. If eukaryogenesis is a statistical outlier with a probability on the order of 1 in 10⁹ or worse, it becomes a cardinal signpost of the unique psychegenetic branch.1
2. Theia Impact: Formation of the Earth–Moon System
The early collision between Earth and the hypothesised planet Theia yielded two improbable outcomes at once: a large stabilising moon and a metal-rich Earth. The angular momentum and energy transfer needed to both eject enough debris to form the Moon and leave the Earth intact was extremely finely tuned. This event likely stabilised Earth’s axial tilt (permitting climate stability), generated long-term tidal dynamics (affecting early life cycles), and drove the internal differentiation which fuels the magnetic field and active tectonics. It’s estimated to be a rare outcome among rocky planets – perhaps 1 in 10⁷ – and essential for the continuity of biological evolution.2
3. Grand Tack: A Rare Planetary Migration Pattern
Early in solar system formation, Jupiter is thought to have migrated inward toward the Sun and then reversed course (“tacked”) due to resonance with Saturn. This migration swept away much of the early inner solar debris, reducing the intensity of late bombardment and allowing small rocky planets like Earth to survive. Crucially, it also delivered volatiles (including water) to the inner system. This highly specific orbital choreography is rarely reproduced in planetary formation simulations. Most exoplanetary systems dominated by gas giants do not preserve stable, water-bearing inner worlds. The odds against such a migration path are estimated to be very high. Some simulations suggest well under 1 in 10⁶. 3
4. LUCA’s Biochemical Configuration
The Last Universal Common Ancestor (LUCA) did not merely represent the first replicator, but a highly specific and robust configuration of metabolism, information storage, and error correction. It was already using a universal genetic code, RNA–protein translation, lipid membranes, and a suite of complex enzymes. LUCA’s molecular architecture was a kind of “narrow gate” through which life could pass toward evolvability. Given the astronomical space of chemically plausible alternatives, LUCA’s setup may reflect a deeply contingent and rare outcome.4
Conclusion: Compound Cosmic Improbability as Psychegenetic Marker
Each of these four events is, in itself, vanishingly unlikely. But more importantly, they are compounded. The joint probability of a single planet experiencing all four – along the same evolutionary trajectory – does indeed render the Earth’s phase 1 history cosmically unique. Under 2PC these improbabilities indicate the statistical imprint of consciousness retro-selecting a pathway through possibility space – making a phase transition from indefinite potentiality to a single, chosen actuality.
1 Lane, N., & Martin, W. F. (2010). The energetics of genome complexity. Nature, 467(7318), 929–934. The energetics of genome complexity | Nature
2 Canup, R. M. (2004). Simulations of a late lunar-forming impact. Icarus, 168(2), 433–456.
Laskar, J., Joutel, F., & Robutel, P. (1993). Stabilization of the Earth’s obliquity by the Moon. Nature, 361(6413), 615–617 and Elser, S., et al. (2011). How common are Earth–Moon planetary systems? Icarus, 214(2), 357–365, and Stevenson, D. J. (2003). Planetary magnetic fields. Earth and Planetary Science Letters, 208(1–2), 1–11.
3 Raymond, S. N., Izidoro, A., & Morbidelli, A. (2018). Solar System formation in the context of extrasolar planets. ArXiv:1812.01033, and Walsh, K. J., et al. (2011). A low mass for Mars from Jupiter’s early gas-driven migration. Nature, 475(7355), 206–209.
4 Woese, C. R. (1998). The universal ancestor. PNAS, 95(12), 6854–6859.
Martin, W., & Russell, M. J. (2003). On the origins of cells. Phil. Trans. R. Soc. B, 358(1429), 59–85, and Lane, N., & Martin, W. (2010). The energetics of genome complexity. Nature, 467(7318), 929–934, and Szostak, J. W. (2012). Attempts to define life do not help to understand the origin of life. J. Biomol. Struct. Dyn., 29(4), 599–600.