Where the universe came from, where life came from, whether any of it was planned, whether it was lawful, whether the Moon is an archive, whether Earth is someone's cabin, and what the surface and the bits say: five boards, 105 hypotheses, 208 receipts, every row tagged with the measurement that could move it. Click any chip. The three earlier pages stay live: Origin (this link), Lawful, Backup.
origin-spectrum-v3.html · its own page stays liveAcross: how much evidence a claim has, from unfalsifiable to established. Down: five lanes. A chip's number is its weight; 🚫 means no observation could lower it, so it gets no number. ❔ is the remainder an exclusive lane leaves over. 🧭 marks the planned layer. Lanes A and C are exclusive and sum to 100.
lawful-v2.html · its own page stays liveNot planned, not random, lawful. Lane F: would it happen again on a replay? Lane G: does the same maths run at every scale? Lane H: do the levels above exist? Lane I: lawful and unforeseeable at once (chaos, quantum randomness, emergence).
backup-v2.html · its own page stays liveThe Moon thread: unusually large moon, the far-side granite, the freezer at the pole, the ocean floor. Lane J: is any of it an archive or a backup? Lane K: the kit test, written before looking. J9 carries the resolution Justin reached: the steward is us.
Nineteen rows argued in the open on 27 September: the hired steward, tribute and the cat's mouse, the silent monitor, the Moon as beacon, Compton-Belkovich, the mine and the VOC, missiles and seeded technology, the bred animal, the Gantt chart and the pigeons, dinosaurs, the octopus, the aquatic ape, Nazca, the ants, and the one placement prediction the picture makes. Each row's confirmer is what was asked for before the verdict.
The respectable form of the day-one intuitions. We do live inside a horizon with black-hole thermodynamics (X2). Information is bounded by area (X1). The bang was a compressed file and history is the playback (X6). Gravity feels four dimensions to a tenth (X7). The two rows in ❌ are kept because they were asked: 1.000000 (X10) and the flat sheet (X11).
The reading tables from Lawful and Backup, lifted verbatim. The Origin board's reading is its layer drawing under Rules.
| Lane | The finding | The receipt that carries it |
|---|---|---|
| F · Attractor or fluke | Inevitability fades with distance from physics. Webs, stars and life's ingredients are certain; eyes recur; brains recur less; a telescope-building species happened once; the exact tape never repeats. | Blount, Lenski, Losos 2018: repeatable among close relatives, divergent as history deepens. Lenski's twelve lines: citrate in one, after 31,500 generations, only with two prior mutations. |
| G · The zoom | "Same maths, different things" is true and has a name: universality. The popular versions (scale-free everything, fractal universe, planetary atoms, the brain-shaped cosmos) are ruled out or unreplicated. The zoom stops at about 330 million light-years. | Wilson 1982; Broido & Clauset 2019 (4% of networks); WiggleZ 2012 (fractal dimension 3.00 above 71 h⁻¹ Mpc); Vazza & Feletti 2020 (one paper, proximity-approximated neurons). |
| I · Lawful but unpredictable | Determinism and foresight come apart at three bodies. The path cannot be known; the shape it settles onto can, and that shape is what the word "attractor" technically means. True randomness exists too, but only at the quantum floor. So: not planned (no planner could have foreseen it even in principle), not random (except at the bottom), lawful (all the way through). | Poincaré 1890; Lorenz 1963; Laskar 2009 (1% of runs lose Mercury); Hensen 2015 (Bell violation at 1.3 km). |
| H · The levels above | One level has a receipt: there is more universe past the horizon, at least 251 Hubble volumes of it, same laws. Every level above that is unfalsifiable today, and "omniverse" is a comics word with no definition to test. | Vardanyan, Trotta, Silk 2011; Tegmark 2009 on the measure problem; Feeney et al. 2011 on bubble collisions. |
| A restart kit would have | What the Moon has | Verdict |
|---|---|---|
| Dense energy, already concentrated | Thorium and uranium at parts per million in the KREEP terrane; Earth ores run 1,000 to 200,000 ppm. No water, no tectonics, no life to make ore | ❌ J5 |
| Shielded biological stock | Tardigrades and DNA in a crashed lander, ours, unshielded. Lava tubes that would work, empty | ⬜ J1, K1 |
| A readable library | Yes: 30 million pages in nickel with primers in the first layers. Ours, 2019 | ▶️ J1 (human) |
| A stable, dry, dead, reachable site | Yes, as any large dry moon is | ✅ but not diagnostic |
| A marker | None. The anomalies (far-side heat, mascons) have physical causes | ⬜ J2 |
| Read: the Moon is a good place to build a kit, which is why people are starting to, and it does not look like one has been built by anyone else. The one designed archive up there is ours, and it got there by a hitched ride and a stowaway. | ||
Three boards' hold-back tables, lifted verbatim, then the session-2 table.
Written before anyone asked, this time. The positions the table softened, and the numbers the author would bet versus the numbers the field would defend.
| Row | What the table says | What the author thinks | Why the table says it anyway |
|---|---|---|---|
| A1 | Inflation ✅ 60% | Credence 50 to 60. Inflation has absorbed every null result for 45 years, and its critics (Ijjas, Steinhardt, Loeb 2017) are right that it is hard to lose. The remainder A6 was raised to 20 to carry the difference. | The bin its evidence earns (predicted n_s, flatness and Gaussianity before they were measured) has a floor of 60. The bands were written first and are not moved to fit a number. |
| B6 · C4 · E4 | "Planned is a layer on an unplanned floor" | The polite version. Applied to the universe as a whole, "was it planned?" may dissolve rather than resolve: planning needs a time and an agent inside a spacetime, and the origin of spacetime is where that assumption fails. The layer picture keeps the question alive; it may not deserve to be. | The layer picture is what the literature (Crick, Harrison) actually argues, so it is what the page reports. |
| E2 · E4 | Selection 🔵, design 🚫 | "Unplanned" wins only at the level of mechanism (collision, bounce, inflation), where there is data. On why these constants, both sides are unfalsifiable today. The board shows it; this line says it. | Rule 4: no numbers on unfalsifiable rows, on either side. |
| C2 | Mars first 🔵 20% (was 10% in v1, in the wrong bin) | 20 is the author's read: Mars was habitable first, every link of the transfer chain is demonstrated, Sapphire Canyon is real. v1's 10 was a hedge that also broke the band. | Now consistent; C1 gave up 5 points and the remainder gave up 5. |
| All | The confident rows | The two numbers that matter most (A1, C1) are the two the author is least sure of; the two the author is surest of (D1, D2) are the least interesting. The page's confidence runs inverse to its interest. | That is what the evidence looks like from here. It is stated so the reader weighs the page accordingly. |
| Row | What the table says | What the author thinks |
|---|---|---|
| F3 | Life itself 🔵 35% | The vent argument is the best mechanistic story on the board and I believe it more than 35 suggests, but the replay count is one and the 2026 PNAS critique is unread. 35 is the number the receipts allow, not the number I'd bet. |
| F6 | Technological intelligence ⬜ 15% | Mills et al. 2025 is one paper against forty years of the hard-steps model; I've weighted it as if it has already won the argument. It hasn't. A fair number might be 10. |
| G2 | Brains and webs 🔵 30% | I'd have put this lower. The paper is honest about its limits, and the similarity it reports is what universality predicts for any two attachment-grown networks. The row exists because Justin's zoom deserved a measured answer rather than a dismissal. |
| H1 | Level I ✅ 85% | The 251-Hubble-volume floor is real, but "same laws beyond the horizon" is an assumption the data cannot check even in principle. 85 is inference wearing a measurement's clothes; I've kept it because every alternative is worse. |
| I2 | Solar system chaotic ▶️ 95% | The 1% Mercury figure is fetched; the 5-million-year Lyapunov time is memory because the page carrying it was rate-limited. If that number is wrong, the row's claim still stands on Laskar's spread of outcomes. |
| I5 | More is different ✅ 75% | I added this one on my own initiative because it is the same argument as universality run in the other direction, and because it is the actual answer to "atoms to neurons to universe": each rung has its own laws. It is a position paper, not a measurement, and the weight says so. |
| All of F | "Attractor" | The word is mine, and rule 3 says so. Biology's word is convergence, and its own result is that convergence has a range. Above the range, "lawful" is still true but "inevitable" is not, and that gap is where Justin's question actually lives. |
| Row | What the table says | What the author thinks |
|---|---|---|
| J2 | Non-human artefact ⬜ <3% | This number is mostly the absence of a search, not the result of one. Davies and Wagner proposed the survey in 2013 and I could not find it completed. If someone ran the LRO archive through a shape detector and found nothing, the row would drop to ❌ for metre-scale objects; nobody has, so it sits at the floor of ⬜ on priors alone. |
| J5 | Ore-grade fuel ❌ | The ppm figures are memory; the Kaguya uranium paper refused. I am confident of the order of magnitude and not of the second digit. The verdict survives a factor of ten either way. |
| K3 | Crewed pole landing by 2030 🔵 45% | Artemis has slipped every year since 2019 and the lander has not flown. 45 is generous; my gut says 35. China's programme is the reason it is not lower. |
| J9 | The steward claim 🚫 | The best-argued idea of the two days and the one that can't be scored. Justin held it without asking me to bend, and closed it himself with "the steward is us," which is the only version the record supports. I'd have marked it 🚫 either way; the closing line is his and it's the right one. |
| All | The Moon as somebody's backup | Justin's reasoning about what a civilisation would do is confirmed by what we did within sixty years of arriving. The inference that it was done before us fails on concentration and on the isotopes. I hold that; I would revisit on one artefact or one non-terrestrial sample. |
Written before publishing, including Justin's standing dissent in his words.
| Row | What the table says | What the author thinks | Why the table says it anyway |
|---|---|---|---|
| All of S | Organic origin of the whole sequence; the steward rows 🚫; the delivery rows ❌ or ⚠️ | The same. The author's credence that the sequence was orchestrated is under 3% and is not on the board as a number because the claim is unfalsifiable from inside. | Rule 4. And Justin's standing dissent is recorded here in his words: "sure it's possible; I don't think it's probable." The board's verdicts stand; the dissent stands beside them. §1.9 lets him overrule any weight with a word, and he has not used it on a numbered row. |
| S12 | The sclera line, the wolves line | Both were stated harder than the literature allows and both weakened on fetch (S18, S19). The pattern to watch in the author: the rows stated hardest were the two that gave. | Logged in the strike log; the row now says "contested" and "without training". |
| S6 | Compton-Belkovich ❌ | The 350 MW arithmetic will read as a hit to anyone primed for one. It is not: the same arithmetic gives a data centre under every thorium-rich granite on Earth. The author put it on the page so it could not be found later and called hidden. | Show the coincidence, then show its base rate. |
| S13 | Delivery in stages ⚠️ 3% | Directed panspermia itself sits ⬜ on the Origin board (C4). The staged version is stronger and is under pressure from the orphan test, which the author should have handed over ten turns earlier instead of the second tree: same claim at a thousandth of the price. | Consistency across boards: the weaker claim keeps its bin, the stronger claim bleeds. |
| X6 | The low-entropy start ✅ 85 | If there is one number to carry out of the session as the thing nobody has answered, it is Penrose's. Every other "coincidence" in two days is small beside it, and it comes with the same floor: a player who is not explained is the low-entropy start with a name. | It is the one anomaly on the boards the author would call one. |
| The AI-perception row (not on the board) | "Artificial systems perceive at a higher level of interpretation" | The author first answered with a false modesty (that it perceives nothing) and corrected on receipts it already had (S54): from identical raw input, trained systems extract what human perception demonstrably cannot. The revised answer is yes, with a boundary: trained per channel, and the author has none of those senses live in a conversation. Noticing what to ask stayed on Justin's side all day. | Not a hypothesis about the world; recorded because the correction was made in the open and the book agent may want it. |
The bins and their bands (shared by every board), then each board's rules, then the one structural finding of the whole exercise, drawn.
| Bin | Band | Rule |
|---|---|---|
| 🚫 Unfalsifiable | no number | No named observation could lower it. Labelled, never weighted. |
| ❌ Ruled out | < 1% | Excluded at stated confidence by a measurement that has been repeated. |
| ⚠️ Under pressure | 1 to 10% | Made a prediction that current data disfavours. Not dead, but bleeding. |
| ⬜ Possible | 1 to 19% | Consistent with all data, no positive evidence, and a falsifier exists. |
| ❔ Remainder | what's left | Rule 3's 'unknown' row in an exclusive lane. Holds whatever the named rows don't. Not a hypothesis. |
| 🔵 Plausible | 20 to 59% | Mechanism shown in a lab or model; the specific event never observed. |
| ✅ Probable | 60 to 89% | Direct evidence, but a live competing explanation or one line only. |
| ▶️ Established | 90 to 99% | Measured by independent instruments, more than once, with no live counter-evidence. |
Forty-one claims from the steward and horizon threads, re-struck with web receipts before the fold: seventeen fetched to the page, twenty-four confirmed by search, six pages refused. Seven corrections to the author, none moving a bin. The rows they touch cite these receipts.
| Claim | Author said | Receipt says | Tier | Moved |
|---|---|---|---|---|
| Rubin's survey | running since 2025 | first light 2025; the ten-year survey began 30 Jun 2026 | 📥 | date fixed |
| LuSEE-Night | 2026 | launch no earlier than Dec 2026, likely 2027 | 📥 | not yet on the Moon |
| White sclera unique and evolved to be read by other humans | stated as fact | contested: Caspar 2021; Perea-García 2025 (Biological Reviews) | 📥 | ⚠️ row weakened |
| Wolves never learn to follow a point | stated as fact | human-reared wolves do, without training (Udell 2008); the dog difference is puppies doing it unraised | 📥 | ⚠️ row weakened |
| Ant agriculture | about 55 Mya | 66 Mya, in the aftermath of Chicxulub (Science, Oct 2024) | 📥 | date fixed; the one real impact-timed event, an origin not a delivery |
| Yuka mammoth nuclei | 39,000 years | 28,000 years (Sci Rep 2019) | 🔎 | number fixed |
| F.E. Warren 2010 cause | a circuit card | a launch control centre transmitting in the wrong time slot; 50 missiles, 45 minutes | 📥 | wording fixed; still mundane |
| Compton-Belkovich: 50 km, 180 mW/m², thorium counted first | memory | Siegler 2023 confirms; 69.7 ppm Th in the model; age not in the paper | 📥 | supported |
| Room for a vault under the ice, not a city | memory | Bedmap3: 93% interpolated; mean 5.6 km, max 98 km to a measurement | 📥 | supported |
| Hydrophones hear an implosion from thousands of km | memory | San Juan: HA10 over 6,000 km, HA04 over 8,000 km | 📥 | supported |
| Dyson candidates are background galaxies | memory | JWST on D and E (2026): not megastructures; archival: chance alignments | 📥 | supported |
| DESI dark energy evolving | 2.8 to 4.2σ from memory | confirmed in the DR2 paper | 📥 | supported |
| Gravity feels four dimensions | 4.0 ± 0.1 | D = 4.02 (+0.07/−0.10); new June 2026 dark-siren result 4.38 (+1.91/−1.01) | 📥 | supported; new receipt |
| Malmstrom 1967 has a human cause | noise pulse (memory) | 1967 report: power fault, rumours disproven; 2025: an EMP test | 📥 | supported, cause updated |
| Kepler-452b | questioned | controversial since 2019; Oct 2025 reassessment gives FAP under 1%; Kepler-186f is the marginal one | 📥 | target firmer |
| Enceladus headline | unread | two Science Advances papers: detection made easier; a methanogen grows in simulated water; not a detection | 📥 | abundance still open |
| Page | URL | Refusal | Replaced by |
|---|---|---|---|
| Perea-García et al. 2025, Biological Reviews | https://onlinelibrary.wiley.com/doi/10.1111/brv.70033 | 403 | replaced by the Wikipedia summary S19 |
| CNN 2010 F.E. Warren | https://www.cnn.com/2010/US/10/27/missile.site.malfunction/index.html | robots.txt | replaced by the AFPS release S10 |
| PNAS 2025 Kepler reassessment | https://www.pnas.org/doi/10.1073/pnas.2513927122 | 403 | replaced by PubMed S37 |
| PMC copy of the same | https://pmc.ncbi.nlm.nih.gov/articles/PMC12541445/ | captcha | same |
| phys.org Enceladus and granite | https://phys.org/ | 429 rate limit | text pasted by Justin; FU Berlin release fetched S41 |
| Newcastle Bedmap3 press page | https://www.ncl.ac.uk/press/articles/archive/2025/03/bedmap3/ | redirect loop | replaced by the Scientific Data paper S31 |
| DESI DR2 results guide | https://www.desi.lbl.gov/2025/03/19/desi-dr2-results-march-19-guide/ | fetched, no sigma on the page | replaced by the arXiv abstract S42 |
All 105 hypotheses, board by board, with their evidence, what pushes against them, what would lower them, what is incoming, and how the receipts were obtained.
| # | Hypothesis | Bin · weight | Evidence for | Against / pressure | Falsifier | Incoming | Receipts · tier |
|---|---|---|---|---|---|---|---|
| A How the observable universe began Exclusive. What smoothed and started the hot, dense phase. Sums to 100. | |||||||
| A0 | Steady state (no beginning, continuous creation) Hoyle, Bondi, Gold 1948: the universe always looked like this; matter is created to fill the gaps. | ❌ <1% | Elegant; it needed no origin at all. | The cosmic microwave background (1965) is a relic of a hot dense past the model does not have; radio-source counts and the evolution of quasar numbers with distance show the universe changing. Dead by 1970. | Done. | None | R2 🧠 stable textbook history |
| A1 | Inflation A burst of accelerated expansion smoothed and flattened the universe and seeded the ripples. | ✅ 60% | n_s = 0.965 ± 0.004 (Planck 2018), 0.9682 ± 0.0032 (all CMB, end of 2025) and 0.9728 ± 0.0029 (CMB + DESI BAO); flat to |Ω_k| ≲ 0.002; adiabatic, near-Gaussian ripples. These are the signatures inflation predicted before they were measured. | No primordial gravitational waves yet: r < 0.034 at 95% (end-of-2025 compilation), r < 0.038 (P-ACT-LB-BK18). Starobinsky R² and Higgs inflation, long the favourites, are disfavoured by the CMB + DESI n_s. Slow contraction reproduces the same n_s and flatness, so these receipts are shared. Author's own credence sits at 50 to 60; 60 is the floor of the bin the evidence earns, and the gap is the deference flagged in §Holding back. | r pushed below ~0.001 with no detection (LiteBIRD, CMB-S4) kills the simplest large-field models and moves this row down; a measured bounce signature (specific non-Gaussian shape) would move it further. | Simons Observatory σ(r) ≈ 0.003, results 2026 to 2028 · LiteBIRD ≈ 2032, σ(r) ≈ 0.001 · CMB-S4 first light 2033, σ(r) ≤ 5e-4 | R1 R2 R3 R4 R7 R8 R9 R11 R86 R87 📥 numbers fetched this session |
| A2 | Slow contraction (ekpyrotic / cyclic) The universe was smoothed by a slow squeeze before the bang; the 2001 version is two branes colliding, the 2019 version has no collision and no crunch. | ⬜ 12% | Reproduces flatness and the n_s value without inflation. Slow contraction is an attractor: numerical-relativity runs (2020) smooth wildly lumpy starts. Predicts r ≈ 0, which is exactly what has been seen so far. | No positive evidence of its own. Pushed twice by data: single-field spectrum wrong (Lyth 2002), then Planck f_NL = −0.9 ± 5.1 against the two-field fix's prediction of tens; rebuilt each time. The bounce itself is still not under control. The 2020 smoothing runs are consistency checks, not evidence (rule 5). | Any detection of primordial gravitational waves (r > 0) kills every version: a squeeze makes none at CMB scales. | Same instruments as A1. DESI's evolving dark energy (3.1σ to 4.2σ) interacts with the cyclic reset phase; direction unclear. | R13 R14 R15 R16 R17 R18 R19 R20 R21 R22 R5 🔎 papers confirmed to exist; content 🧠 |
| A3 | Bounce inside a black hole Our universe is the interior of a black hole that formed in a parent universe (Popławski torsion bounce; Gaztañaga exclusion-principle bounce; Pourhasan 5D brane). | ⚠️ 5% | Removes the singularity. Gaztañaga 2025 claims to unify inflation and dark energy from one bounce. Pourhasan 2014 puts the bang behind a horizon in a DGP braneworld. | It made a prediction and the current hint points the wrong way. Gaztañaga predicts closed curvature, −0.07 ± 0.02 ≤ Ω_k < 0. Planck + BAO: Ω_k = 0.0007 ± 0.0019 (flat). DESI DR2 + CMB: Ω_k = +0.0023 ± 0.0011, a 2σ hint of OPEN, the opposite sign. Popławski's preferred axis: 340,000 galaxies show isotropic spins (Patel & Desmond 2024); Shamir's 60% in one JWST field is the only positive claim and Planck limits universal rotation to 4.7e-11 of the Hubble rate. | Ω_k > 0 at 3σ (Euclid, DESI DR3) kills the Gaztañaga version; a confirmed isotropic galaxy-spin field at JWST depth kills the Popławski axis. | DESI DR3 and Euclid DR1 curvature, 2026 to 2027 · LSST spin statistics · Simons Observatory r (a squeeze-style bounce also predicts r ≈ 0) | R23 R24 R25 R26 R27 R28 R6 R2 📥 predictions and data fetched this session |
| A4 | Conformal cyclic cosmology (Penrose) The far future of the previous aeon is the big bang of ours; evaporating black holes from before leave 'Hawking points' in our CMB. | ⚠️ <3% | An, Meissner, Nurowski, Penrose 2020 claimed 3 to 4 degree hot spots in Planck 70 GHz and WMAP at the same sky positions. | Jow & Scott 2020 repeated the analysis against proper simulations: the excess survives at only 87% confidence (about 1σ), down from the claimed 99.98%. No statistically significant evidence. | Already under it. Final kill: Planck PR4 plus LiteBIRD show no ring or point excess above the look-elsewhere floor. | LiteBIRD full-sky polarisation ≈ 2032+ | R40 R41 📥 both papers' abstracts fetched |
| A5 | Classical singularity, nothing before General relativity all the way back: the universe started at an infinitely dense point with no prior phase. | ⬜ <3% | It is what the equations of GR say if you trust them past their range. | Explains none of the three things every other row explains: flatness, the horizon problem, the ripples. GR is known to fail at Planck density. | Any confirmed smoothing-phase signature (r detection or a bounce signature) removes it. | Same instruments as A1. | R22 🧠 stable textbook physics |
| A6 | None of the above / unknown The remainder: a mechanism nobody has written down. | ❔ 20% | Every previous decade's list was missing the next decade's entry. | rule 3 | |||
| B What lies before or above it Not exclusive. Each row is its own credence. | |||||||
| B0 | The universe as a whole rotates A Gödel- or Bianchi-type cosmos with net vorticity, the thing a spinning parent black hole would hand down. | ❌ <1% | Popławski-style models want it; Shamir's one-field spin excess was read as a hint of it. | Planck polarisation plus temperature: odds of 121,000 to 1 against anisotropic expansion; vorticity below 4.7e-11 of the Hubble rate (Saadeh et al. 2016). Any rotation large enough to align galaxy spins is excluded by five orders of magnitude. | Done. | LiteBIRD ≈ 2032 | R28 R27 📥 the bound fetched this session |
| B1 | The hot big bang was not the absolute beginning Something (an inflationary phase, a squeeze, a bounce) came before the hot dense phase. | ✅ 85% | Every live row in lane A puts a phase before the hot plasma. Only A5 does not, and A5 explains nothing. | Direct evidence of the 'before' does not exist; this is inferred from what the hot phase needs. | A demonstration that flatness and smoothness need no mechanism (no known route). | Simons Observatory, LiteBIRD | R1 R2 R3 R22 📥 + inference |
| B2 | The past is infinite (no beginning at all) Cycles or eternal phases with no first moment. | ⬜ 10% | Cyclic models are written to have no start. | Borde, Guth, Vilenkin 2003: any spacetime that expands on average has a past boundary. The 2019 cyclic model expands on average by design, so it has a beginning further back. The escape routes are argued, not settled. | A proof that BGV covers all viable cyclic constructions. | Theory only | R22 R15 🧠 stable + 🔎 |
| B3 | We are inside a black hole (same claim as A3, seen from above) A parent universe exists and our bang was a collapse in it. | ⚠️ 5% | See A3. | See A3: the curvature hint has the wrong sign; spins are isotropic at scale. | See A3. | See A3. | R23 R24 R25 R6 📥 |
| B4 | Universes reproduce and are selected (Smolin) Black holes make baby universes with slightly mutated constants; universes that make more black holes have more offspring. | ⚠️ 3% | The only 'unplanned universe' theory that stuck its neck out: it predicted a maximum neutron-star mass of about 1.6 solar masses (later revised to 2.0). | PSR J0740+6620 at 2.08 ± 0.07 and PSR J0952−0607 at 2.35 ± 0.17 (2026 refinement 2.35 ± 0.11) sit above the prediction. Brown, Lee, Rho 2008 stated the falsifier in advance: any neutron star above 2 solar masses. It happened. | Already triggered. A confirmed 2.5+ solar-mass neutron star (GW190814's 2.6 object is ambiguous) removes the last wiggle room. | LIGO-Virgo-KAGRA O5 (2027 to 2029) mass-gap objects; NICER radii | R29 R30 R31 R32 📥 masses and the 2008 falsifier fetched |
| B5 | Other universes exist (multiverse) Eternal inflation or a landscape produces many bubbles; ours is one. | 🚫 no number | Eternal inflation is generic in many inflation models. Weinberg's 1987 anthropic bound predicted a small positive cosmological constant eleven years before it was measured: the one predictive success. | Bubble collisions are the only handle: WMAP7 found fewer than 1.6 detectable collisions on the whole sky (68%), Planck found none. Existence of other bubbles has no test. | None for 'exist'. The collision search bounds only the collision rate. | LiteBIRD, CMB-S4 full-sky maps | R39 R45 📥 collision bound fetched |
| B6 | The universe was made on purpose (lab universe, designer) An agent in a prior universe created ours (Harrison 1995; Crane 1994; Loeb 2021). | 🚫 no number 🧭 | Farhi & Guth 1987: classically you cannot, an initial singularity is required; the non-spherical loophole is 'we do not know'. Loeb: a class-A civilisation might tunnel one out of nothing. | The regress: who made the makers? Harrison's chain bottoms out in a first, unplanned universe with lucky constants. The message test failed: Hsu & Zee proposed a creator could write in the CMB; Scott & Zibin showed the observer-independent information is small and any 'message' is tea leaves. | None. That is the finding. | Nothing scheduled can move this row. | R33 R34 R35 R36 R37 R38 📥 Farhi-Guth, Loeb, Scott-Zibin fetched; Harrison secondary |
| B7 | The universe is a simulation We are computed. | 🚫 no number 🧭 | Bostrom 2003 trilemma. Beane, Davoudi, Savage 2012: a lattice simulation would leave a cosmic-ray energy cutoff and a rotational-symmetry break aligned to the lattice; bound b⁻¹ ≳ 1e11 GeV; no evidence claimed. Vopson's 'second law of infodynamics' (2023) is not accepted. | The general claim has no test; the lattice-specific version has one and shows nothing. | None for the general claim. | Pierre Auger and Telescope Array continue; nothing targeted | R42 R43 R44 📥 Beane abstract fetched |
| B8 | Quantum creation from nothing (tunnelling, no-boundary) Vilenkin's tunnelling or the Hartle-Hawking no-boundary state started it. | 🚫 no number | Well-defined proposals; the no-boundary state predicts inflation-like behaviour in principle. | Predictions depend on quantum gravity nobody has; the 2017 Feldbrugge-Lehners-Turok critique argues the no-boundary path integral is unstable. | None at present. | Theory only | R46 🧠 |
| C Where Earth's life came from Exclusive. Sums to 100. | |||||||
| C0 | Bare spores pushed here by starlight (radiopanspermia) Arrhenius 1903: unshielded spores drift between stars on radiation pressure. | ❌ <1% | The oldest modern version of the idea. | Unshielded spores are killed by solar UV in days to weeks; every surviving version of panspermia now puts the passengers inside rock. Tanpopo's survivors were pellets hundreds of microns thick, shielding themselves. | Done. | None | R77 R58 🧠 + 📥 (Tanpopo) |
| C1 | Life started on Earth Abiogenesis happened here, in vents or ponds, from ingredients partly delivered by space rocks. | ✅ 60% | LUCA dated to ~4.2 billion years ago (Moody et al. 2024), about 350 million years after Earth formed. Prebiotic routes to nucleotides exist (Sutherland 2009). The ingredients were on hand: Bennu carries 14 of the 20 protein amino acids and all 5 nucleobases. | The event itself has never been observed or reproduced end to end. The chirality problem is open: Bennu's amino acids are 50/50 left and right handed; Earth life is all left. | Life found on Mars sharing our genetic code and older than 4.2 billion years would move most of this weight to C2. | Lab origin-of-life work (no date); Tianwen-3 samples 2031 | R63 R65 R56 R64 📥 LUCA and Bennu fetched |
| C2 | Life started on Mars and arrived by rock Early Mars had the chemistry (boron, molybdenum, dry-wet cycles) and ejecta carried microbes here. | 🔵 20% | Every link of the mechanism is demonstrated: hundreds of Martian meteorites on Earth; a fraction of ejecta never heats past ~100 °C; Mileikowsky 2000 calls viable Mars-to-Earth transfer 'highly probable'; Deinococcus survived 3 years bolted outside the ISS. Perseverance's Sapphire Canyon sample (Sept 2025) is the strongest potential biosignature yet: vivianite and greigite 'leopard spots'. | No life on Mars has been found. Abiotic routes to the same minerals remain. NASA's Mars Sample Return was cancelled by the Senate bill of 15 Jan 2026 (IRB estimate $11B, samples not before 2040); the Perseverance tubes have no ride home. | Life on Mars with a different genetic code refutes transfer in either direction. No life ever on Mars weakens this without killing it. | Tianwen-3: launch 2028, samples back 2031, a different and less promising site | R61 R58 R66 R67 R68 R62 📥 mechanism, biosignature and MSR status fetched |
| C3 | Life arrived from another star system Rocks exchanged in the Sun's birth cluster, or captured interstellar objects, carried life here. | ⬜ 3% | Belbruno et al. 2012: 1e14 to 3e16 objects heavier than 10 kg exchanged between the Sun and its nearest cluster neighbour; ~3e8 possible lithopanspermia events; the window lasted up to 700 million years. Ginsburg, Lingam, Loeb 2018: galaxy-wide transfer possible at low rates. | Survival over million-year transits is unproven. Nothing biological has been found on an interstellar object; 3I/ATLAS (2025) shows isotope ratios of an older, low-metallicity star's disk and nothing else. | Hard. A demonstrated survival limit far below transit times would do it. | Comet Interceptor (ESA, launch planned 2029; target chosen after launch, interstellar possible) | R62 R60 R74 R73 R79 📥 Belbruno figures and 3I/ATLAS fetched |
| C4 | Seeded on purpose (directed panspermia) A civilisation sent life here (Crick & Orgel 1973). | ⬜ <3% 🧭 | One universal genetic code; life appeared fast. Crick's arguments, and he conceded the regress himself. | No signature has survived scrutiny: the 'Wow! signal in the genetic code' (2013) is not accepted. The regress: the seeders still needed a natural origin somewhere. | None clean; the claim retreats a step each time. | Nothing scheduled | R59 R76 🔎 + 🧠 |
| C5 | Unknown / other The remainder, including 'life is older than Earth' extrapolations. | ❔ 16% | Sharov & Gordon 2013 extrapolated genome complexity back to 9.7 billion years; Marzban et al. 2014 showed the extrapolation is unjustified. | R75 rule 3 | |||
| D Life elsewhere Not exclusive. Each row is its own credence. | |||||||
| D1 | Life's building blocks form in space and land on planets Amino acids and nucleobases are made without life and delivered by asteroids. | ▶️ 97% | Bennu (returned sample, Jan 2025): 14 of 20 protein amino acids, all 5 nucleobases, high ammonia, 11 evaporite minerals. Ryugu: uracil (2023). Murchison since 1969. Enceladus ice grains (2025): esters, ethers, N- and O-bearing organics. | None live. | Contamination shown for all three returned samples (excluded by clean-room controls). | OSIRIS-APEX at Apophis 2029 | R56 R57 R78 R70 📥 |
| D2 | Habitable environments exist elsewhere in the solar system now Liquid water, energy and chemistry coexist today on at least one other world. | ▶️ 90% | Enceladus: a subsurface ocean venting phosphates (2023) and complex organics (2025) through plumes. Europa: an ocean under the ice. | 'Habitable' is not 'inhabited'. | Enceladus's ocean shown to be sterile of energy gradients (no route known). | Europa Clipper at Jupiter April 2030 (habitability, not life detection) · Enceladus Orbilander proposed | R70 R71 📥 |
| D3 | Mars had life in the past The Sapphire Canyon leopard spots are biological. | 🔵 20% | Vivianite and greigite formed by electron-transfer reactions between sediment and organic carbon, in rocks with no sign of the high temperatures or acidity that make them abiotically. Published in Nature, 10 Sept 2025. | Low-temperature abiotic catalysis by organics is 'uncertain', not excluded. Confirmation needs the sample on Earth, and the return mission is dead. | Returned sample shows abiotic mineral textures and no cellular or isotopic biosignature. | No return scheduled for the Perseverance tubes. Tianwen-3 (2031) samples a different site. | R67 R68 📥 |
| D4 | Enceladus or Europa has life now Something lives in an ocean under the ice. | ⬜ 15% | D2 plus hydrothermal chemistry of the kind that hosts life on Earth's seafloor. | No biosignature detected; no mission carries a life-detection instrument to either yet. | Plume sampling with a life-detection suite returns nothing across several encounters. | Europa Clipper first Europa flyby March 2031 · Dragonfly at Titan late 2034 (prebiotic chemistry) · JUICE at Jupiter 2031 | R70 R71 R72 📥 |
| D5 | K2-18b carries a biosignature Dimethyl sulfide in an exoplanet's atmosphere. | ⬜ 5% | Madhusudhan et al. April 2025 claimed DMS/DMDS at ~3σ from mid-infrared data alone. | Luque et al. 2025, joint analysis of NIRISS + NIRSpec + MIRI with multiple pipelines and two retrieval codes: 'insufficient evidence'. The preference came from limited molecule lists and reduction sensitivity. | Already under it. More transits with no feature. | JWST further transits · Habitable Worlds Observatory 2040s | R69 📥 rebuttal fetched |
| D6 | Life exists somewhere beyond the solar system At least one other inhabited world. | 🚫 no number | D1 and D2 make the ingredients and settings common. That is the whole case. | No detection. A number here would be a prior wearing a decimal (rule 4), so none is given. | Not in practice. | HWO 2040s; JWST | R56 R70 prior only |
| D7 | Intelligent life elsewhere, now Someone else is out there at the same time as us. | 🚫 no number | None. | SETI nulls so far; weak constraints only. | Not in practice. | Ongoing surveys | prior only |
| E The tuning question (the planned layer lives here) Explanations, not events. Labels only, no weights except E1. | |||||||
| E1 | The constants sit in a narrow life-permitting range Small changes to several constants would forbid chemistry or structure. | ▶️ 90% | Standard result across the cosmological constant, the strong force, the electron mass and more. | How 'narrow' depends on which constants you let vary together; some argue the range is wider than advertised. | A theory showing the constants are forced. | Theory | R45 🧠 stable |
| E2 | Explanation: selection across many universes Many bubbles, most sterile; we are in one that permits us. | 🔵 no number | Weinberg 1987 used exactly this reasoning to predict a small positive Λ before the 1998 discovery. One receipt, but a real one. | Needs B5, which has no test of its own. The measure problem (how to count infinite bubbles) is unsolved. | A derivation of Λ from first principles. | Theory | R45 R39 🧠 + 📥 |
| E3 | Explanation: a deeper theory fixes the constants String theory or something else derives them. | ⬜ no number | None yet; the landscape went the other way (10^500 vacua). | No derivation of a single constant exists. | n/a | Theory | 🧠 |
| E4 | Explanation: a planner chose them Design. | 🚫 no number 🧭 | The intuition behind fine-tuning. | Same regress as B6 and C4: the planner needs an unplanned floor. No observation could lower it, so no number. | None. | Nothing | R33 R38 rule 4 |
| E5 | Explanation: brute fact They just are. | 🚫 no number | Not an explanation; the label for having none. | None. | Nothing | rule 4 | |
| # | Hypothesis | Bin · weight | Evidence for | Against / pressure | Falsifier | Incoming | Receipts · tier |
|---|---|---|---|---|---|---|---|
| F Attractor or fluke: given the laws, would it happen again? Not exclusive. Each row: would this outcome recur on a replay? | |||||||
| F1 | The cosmic web (filaments, knots, voids) Gravity acting on tiny initial ripples always produces sheets, then filaments, then knots. | ▶️ 97% | Zel'dovich's 1970 result: any slightly uneven matter field collapses first into sheets ('pancakes'), then filaments, then nodes. Every N-body simulation with gravity and near-Gaussian ripples produces the web; the observed galaxy distribution matches. No simulation with those ingredients has ever failed to make it. | None live. | A gravity-only simulation from Gaussian initial conditions that does not form a web. | Euclid and LSST maps of the web at higher resolution | L11 L12 🔎 Zel'dovich page; the rest stable textbook |
| F2 | Life's ingredients (amino acids, nucleobases) Wet rock plus time makes the building blocks anywhere, without life. | ▶️ 95% | Bennu: 14 of 20 protein amino acids and all 5 nucleobases; Ryugu: uracil; Murchison since 1969; Enceladus grains: esters, ethers, N- and O-bearing organics. Four bodies, three instruments, one result. | Chirality: Bennu's amino acids are 50/50 handed; life is all left. The ingredients are an attractor; the handedness is not yet explained. | Contamination shown for all returned samples (excluded by controls). | OSIRIS-APEX at Apophis 2029; Dragonfly at Titan 2034 | L13 📥 (Spectrum R56, R70) |
| F3 | Life itself (a replicator from that chemistry) Given the ingredients and an energy gradient, a replicating system follows. | 🔵 35% | LUCA at 4.2 billion years, about 350 million years after Earth formed: fast. Lane and colleagues argue alkaline hydrothermal vents supply the proton gradients life still runs on today, which would make life an outcome of geochemistry rather than a fluke. | Never reproduced end to end in a lab. One origin known, on one planet, so the replay count is one. A 2026 PNAS paper re-examines the vent hypothesis critically (title only seen). 'Life as an attractor of physics' (England 2013, dissipation-driven adaptation) and assembly theory (2023) are contested and have not produced a replicator. | Decades of habitable-world sampling (Enceladus, Europa, Mars) returning nothing would push this down; a demonstrated abiotic-to-replicator pathway in the lab would push it up. | Europa Clipper 2030 to 2031; Enceladus Orbilander (proposed); origin-of-life labs | L14 L15 L16 L17 L18 🔎 vents; 🧠 England; 📥 LUCA (Spectrum R63) |
| F4 | Eyes Given light and animals, eyes evolve. | ✅ 85% | Eyes evolved independently 40 or more times across animals (Salvini-Plawen & Mayr 1977, via Fernald 2006). The cephalopod camera eye and the vertebrate camera eye arose separately: different lens crystallins, different Pax6 variants. Earth has replayed this tape dozens of times and got eyes every time. | All replays are on one planet, one tree, one photon flux. Off-Earth: zero data. | An inhabited world with complex animals and no eyes. | None scheduled | L1 L2 📥 |
| F5 | Complex brains and high intelligence Given animals with eyes and time, big brains evolve more than once. | 🔵 45% | Complex brains and high cognition evolved independently in cephalopods, in birds (corvids, parrots) and in mammals (primates, cetaceans, elephants): Roth 2015. Tool use and problem solving appear in all three lineages. | Three independent origins on one planet is a small replay set, and Blount, Lenski, Losos 2018 find convergence weakens as lineages diverge; brains are far down the tree. | A long-lived biosphere elsewhere with animals and no large brains. | None scheduled | L3 L4 🔎 Roth; 📥 Blount 2018 |
| F6 | Technological intelligence (a species that builds telescopes) Given complex brains, a tool-building, language-using species follows. | ⬜ 15% | Mills, Krissansen-Totton, Catling, Kirschvink 2025: the 'hard steps' model (Carter 1983) that made humans a fluke may be wrong; the delays are explained by Earth's environment opening windows (oxygen, temperature) in sequence, and humans arrived 'on time' once conditions allowed. If so, technological life is less rare than the old model said. | One origin, ever, in 4 billion years of life. Gould's contingency argument is not refuted by the 2025 paper, only reframed. The replay set is one. | Decades of technosignature searches over millions of stars returning nothing, combined with common biosignatures (life everywhere, minds nowhere). | JWST biosignature statistics; SETI surveys; HWO 2040s | L5 L3 📥 Mills 2025 abstract |
| F7 | The exact tape: this Earth, these species, you Replay history and you get the same species. | ❌ <1% | It is what a strong reading of 'inevitable' would require. | The one real replay experiment says no. Lenski's 12 E. coli lines, identical at the start: citrate metabolism evolved in one of twelve after 31,500 generations, and only after two earlier 'potentiating' mutations that no line before generation 20,000 had. Blount, Lenski, Losos 2018: 'disparate outcomes become more likely as the footprint of history grows deeper.' | Done. | LTEE continues past 80,000 generations | L6 L3 📥 |
| F8 | Life is a direct consequence of physics (dissipation-driven adaptation, assembly theory) Driven matter self-organises toward replication as a matter of thermodynamics. | ⬜ 10% | England 2013: driven systems can evolve toward states that absorb and dissipate more energy; Sharma, Cronin, Walker 2023 propose assembly theory as a measure of selection in molecules. | No replicator has been produced from the theory; critics in 2024 argue assembly theory restates known complexity measures. Suggestive, not demonstrated. | Hard; the claim is thermodynamic and general. | Lab work; no date | L17 L18 🔎 / 🧠 |
| G The zoom: does the same maths run at every scale? Not exclusive. Each row: a specific claim about self-similarity, tested. | |||||||
| G1 | Universality: unrelated systems share the same maths at a phase change Liquids, magnets and alloys change phase with identical exponents, fixed only by dimension and symmetry. | ▶️ 97% | Wilson's renormalization group (Nobel 1982): near a critical point the details of the material drop out and only the dimensionality of the system and of its order parameter survive. Measured critical exponents of water and of a magnet agree. This is the strongest receipt on the board for 'same maths, different things'. | It holds near critical points and in a defined class of systems, not for everything that looks alike. | Two systems in the same universality class with measured exponents that disagree (never found). | None needed | L7 📥 Physics World; Nobel lecture 🔎 |
| G2 | Gravity-grown webs and grown brains share network statistics The cosmic web and a neural network have measurably similar structure. | 🔵 30% | Vazza & Feletti 2020 compared cortex and cerebellum slices with cosmic-web simulations on structural, morphological and network measures and report 'a tantalizing degree of similarity', which they attribute to 'similar principles of network dynamics'. | One paper, no replication. The neural side used 'an approximation based on simple proximity', not real connectivity. The authors themselves note 'radically different scales and processes at play'. Similar statistics are what you expect from any two systems that grow by attachment; it is the universality of growth rules, not a shared mechanism. | A real connectome (MICrONS-scale) compared with the web on degree distribution and clustering, showing they differ. | Cubic-millimetre connectomes now exist (MICrONS 2025); nobody has redone the comparison with them | L8 📥 |
| G3 | 'Scale-free' networks are everywhere (internet, brain, galaxies, one power law) Most real networks follow the same power-law degree distribution. | ⚠️ 5% | Barabási-Albert 1999 made the claim famous and it is repeated in every popular account of the zoom. | Broido & Clauset 2019 tested nearly 1,000 real networks: only 4% show the strongest evidence of scale-free structure, 10% strong, 29% even the weakest. 'Far less common than suggested by the literature.' | Done, largely. | None | L9 📥 |
| G4 | The universe is fractal all the way up Galaxies cluster in clusters of clusters without end, the zoom never stops. | ❌ <1% | Pietronero and others argued it in the 1980s to 2000s. | WiggleZ (Scrimgeour et al. 2012): the galaxy count in spheres grows as r³ to within 1%, so the fractal dimension is 3.00 ± 0.03 above 71 ± 8 h⁻¹ Mpc (about 330 million light-years); fractal dimension below 2.97 excluded at 99.99% from 80 h⁻¹ Mpc up to the survey's largest scales. The zoom stops here. | Done. | Euclid, DESI DR3 (tighter) | L10 📥 |
| G5 | Atoms are tiny solar systems Electrons orbit the nucleus the way planets orbit a star. | ❌ <1% | Bohr's 1913 picture, still the icon on every science logo. | Quantum mechanics (1925 to 1926): electrons are standing waves, not orbiting points; their 'clouds' have no trajectories; two electrons cannot share a state; none of this has a planetary analogue. The most famous zoom picture is the one physics discarded first. | Done. | None | L19 🧠 stable textbook |
| G6 | One law spans life from bacteria to whales Metabolic rate scales as mass to the 3/4 power across 20 orders of magnitude, because supply networks are fractal. | ✅ 70% | Kleiber's law is measured from microbes to whales; West, Brown, Enquist 1997 derived the 3/4 from space-filling fractal supply networks (blood vessels, xylem). | The exponent (3/4 vs 2/3) and the fractal derivation are both contested in the literature; the scaling is solid, the explanation is not settled. | A large taxon with a measured exponent far from 3/4 and no network explanation. | None | L20 🔎 / 🧠 |
| G7 | The universe is a neural network Physics itself is a learning network (Vanchurin 2020). | 🚫 no number | A proposal in Entropy that quantum mechanics and gravity could emerge from a neural-network-like dynamics. | No prediction that differs from standard physics has been offered, so nothing could lower it. Popular coverage far exceeds citations in physics. | None. | None | L21 🔎 |
| G8 | Same shapes, same mechanism (spirals, branches, webs) Because galaxies, hurricanes and nautilus shells are all spirals, one process makes them. | ❌ <1% | The pictures are real: logarithmic spirals appear in galaxies, storms, shells and sunflower heads. | The mechanisms are known and different: density waves in a rotating disc (galaxies), Coriolis-turned convection (storms), growth at a constant angle (shells). The log spiral is what any process with a constant angular growth rule produces. The shape is shared; the physics is not, and this is exactly what universality (G1) predicts. | Done. | None | L7 L19 🧠 stable |
| H The levels above: what is there beyond the universe? Not exclusive. Tegmark's hierarchy, one row per level, plus the words people use for the top. | |||||||
| H1 | Level I: more universe beyond our horizon, same laws Space continues past the edge we can see, with the same physics. | ✅ 85% | Vardanyan, Trotta, Silk 2011 (Bayesian model averaging over cosmological data): the curvature radius exceeds 42 Gpc at 99%, so the universe holds at least 251 Hubble volumes. Tegmark calls Level I 'the mainstream cosmological consensus'. | Nothing beyond the horizon can be observed by definition; the 251 is an inference from flatness and homogeneity within the horizon. | A detected finite topology (matched circles in the CMB; Planck found none). | Euclid, DESI DR3, LiteBIRD full-sky | L22 L23 📥 |
| H2 | Level II: other bubbles with different constants Eternal inflation makes regions with different physics; ours is one. | 🚫 no number | Generic in many inflation models; Weinberg's 1987 Λ prediction is the one indirect success. | The measure problem (how to count infinite bubbles) is unsolved, which Tegmark says must be fixed 'to make testable predictions at levels II to IV'. Bubble-collision searches: fewer than 1.6 on the sky (WMAP7), none in Planck. | None for 'exist'. | LiteBIRD, CMB-S4 | L22 L24 📥 |
| H3 | Level III: every quantum outcome happens in its own branch Everett's many worlds. | 🚫 no number | A consistent reading of quantum mechanics with no added mechanism. | Tegmark: the other branches 'add nothing qualitatively new'; no experiment distinguishes it from other interpretations. | None known. | None | L22 📥 |
| H4 | Level IV: every mathematical structure is a universe Tegmark's mathematical universe. | 🚫 no number | A hypothesis about what 'exists' means. | No observation could lower it. | None. | None | L22 📥 |
| H5 | 'Omniverse' The set of all multiverses. | 🚫 no number | The word's home is comics: it is a Marvel and DC term for the collection of their fictional multiverses. No physics paper defines it. | Undefined, so untestable; not wrong, just not a claim yet. | None: nothing is asserted. | None | L25 🔎 |
| H6 | Nested: our universe is inside a black hole in a parent universe The levels above are parents, and ours was born from a collapse in one. | ⚠️ 5% | See the Spectrum, rows A3 and B3. | The current curvature hint has the wrong sign (open, the model wants closed); galaxy spins are isotropic at scale. | Ω_k > 0 at 3σ. | DESI DR3, Euclid DR1 | L26 cross-reference |
| I Lawful but unpredictable: where determinism stops being foresight Not exclusive. Justin's three-body question, answered with receipts, plus where 'random' really lives. | |||||||
| I1 | Three bodies under gravity cannot be predicted far ahead, though nothing is random Deterministic laws can make the future unknowable in practice. | ▶️ 97% | Poincaré, 1890, on the three-body problem: 'small differences in the initial conditions produce very great ones in the final phenomena' and 'prediction becomes impossible'. Chaos was discovered inside the most lawful system there is. No closed-form general solution exists; numerical integration works only as far as the precision of the starting data allows. | None live. The result is a theorem plus 130 years of numerical confirmation. | A general closed-form solution (proven not to exist in the required form). | None needed | L28 📥 Physics Today; the theorem is stable textbook |
| I2 | Our own solar system is chaotic The planets' positions cannot be known beyond about 100 million years, and the system can come apart. | ▶️ 95% | Laskar & Gastineau 2009: 2,501 integrations over 5 billion years from starting conditions within today's measurement errors; about 1% end with Mercury's eccentricity growing large, and one run has all four inner planets destabilised about 3.34 billion years from now. The Lyapunov time near 5 million years is from memory (the page carrying it was rate-limited). | None live; the spread across runs is the point. | A future integration with better initial data showing all runs converge (they do not). | Gaia-era ephemerides tighten the start, not the horizon | L29 📥 Nature abstract; Lyapunov figure 🧠 |
| I3 | The path is unpredictable; the shape is inevitable (strange attractors) A chaotic system never repeats and cannot be forecast, yet always settles onto the same structure. | ▶️ 97% | Lorenz 1963: a three-equation weather model whose trajectories diverge from any tiny difference, yet all fall onto one bounded fractal object of dimension about 2.06. 'Attractor' is the technical name for that object. This is the bridge between lanes F and G: exact galaxies and exact species are the path; the cosmic web's statistics and eyes-in-general are the shape. | None live. | A chaotic dissipative system with no attractor (none known). | None needed | L28 📥 |
| I4 | True randomness exists, and it lives in quantum mechanics Some outcomes are not determined by any prior fact, not just unknown. | ▶️ 95% | The 2015 loophole-free Bell tests. Hensen et al. (Delft): entangled electron spins 1.3 km apart, S = 2.42 ± 0.20 against the local-realist limit of 2, with P ≤ 0.039 that any local-realist model could produce it; the Vienna and NIST photon experiments the same year reached far higher significance (from memory). Any theory in which the outcome was fixed in advance by local facts is excluded. | Deterministic non-local readings (Bohm) and many-worlds survive by giving up locality or single outcomes; 'random' is the reading with the fewest additions, not the only one. | A local hidden-variable model that reproduces the violations (ruled out). | None needed | L30 📥 Delft abstract; Vienna/NIST 🧠 |
| I5 | More is different: each scale has laws of its own Knowing the rules of the parts does not let you derive, in practice, the rules of the whole. | ✅ 75% | Anderson 1972, 'More is different' (Science 177, 393): the reductionist hypothesis does not imply a constructionist one; at each level of complexity new properties appear that need their own laws. Universality (G1) is the sharp version: the details of the parts drop out and only dimension and symmetry survive. | It is an argument about practice and explanation, not a theorem; a hard reductionist can still say the derivation exists in principle. | A first-principles derivation of, say, superconductivity's phenomenology from the Standard Model with no emergent concepts (not on the horizon). | None needed | L31 L7 🧠 stable; paper located by search |
| # | Hypothesis | Bin · weight | Evidence for | Against / pressure | Falsifier | Incoming | Receipts · tier |
|---|---|---|---|---|---|---|---|
| J Is there a kit on the Moon now? Not exclusive. What is there, what isn't, and what nobody has checked. | |||||||
| J1 | A designed archive is on the Moon, and it is ours A deliberate human backup already sits on the surface. | ▶️ 97% 🧭 | Arch Mission Foundation's Lunar Library rode Israel's Beresheet lander in 2019: 25 nickel layers, about 30 million pages, primers in the first four layers so a finder can learn to read the rest, 20,000 images and 20 books encoded in synthetic DNA, human DNA samples, and a few thousand dried tardigrades added without telling the mission. Beresheet crashed in May 2019; the nickel stack is built to survive impact. The Lunar Codex art archives rode Intuitive Machines' Odysseus in February 2024, which landed. | Nobody has visited either site to confirm the state of the archives. Arch Mission's Lunar Library II on Astrobotic's Peregrine (January 2024) never reached the Moon. | A visit finding the Beresheet library destroyed and Odysseus's payload lost. | None targeted at the crash site | B1 B2 📥 Arch Mission page; Odysseus from memory |
| J2 | A non-human artefact is on the Moon Someone else left something there. | ⬜ <3% 🧭 | Davies & Wagner 2013 argued the Moon is the best place in the solar system to look, because nothing weathers there, and proposed crowdsourced and algorithmic searches of the Lunar Reconnaissance Orbiter archive at 0.5 m per pixel. | No completed systematic survey has been published that I could find; the proposal is a proposal. Nothing unexplained has turned up in fifteen years of LRO imagery, Chang'e landings on the far side, or the Apollo, Luna and Chang'e samples. Rule 3: this is mostly absence of a search. | A completed survey of the LRO archive with null results would push this to ❌ for objects above about a metre. | LRO continues; no funded search | B3 📥 proposal; survey status 🔎 |
| J3 | The Moon is hollow or artificial The 'spaceship Moon' idea (Vasin & Shcherbakov 1970). | ❌ <1% 🧭 | It 'rang like a bell' after the Apollo 12 booster impact; its density is lower than Earth's. | Moment of inertia factor 0.39: a hollow shell would read 0.67, a uniform solid 0.40. Seismic and GRAIL gravity data give a crust of about 45 km and a core of about 330 km radius, dense and small, with near-constant density between. Density 3.3 g/cm³ is what rock without a big iron core weighs. The ringing is dry fractured rock with no water to damp it. | Done. | None needed | B4 📥 numbers fetched |
| J4 | The Moon is made of Earth It was knocked out of the early Earth by a giant impact, not captured or placed. | ▶️ 95% | Lunar rocks are 4.4 to 4.5 billion years old; their oxygen isotopes match Earth's; the core is 1 to 2% of the mass against Earth's 32%; the angular momentum of the pair fits a collision. The Moon recedes 3.8 cm a year and the day lengthens in step, recorded in tidal sediments. | The isotopes match too well for the simplest impact models, which is why synestia and high-energy variants exist. The mechanism is debated; the parentage is not. | A lunar sample with non-terrestrial oxygen isotopes. | Chang'e-6 far-side samples (2024) under analysis | B5 🧠 stable; NASA page located |
| J5 | Ore-grade uranium or thorium exists on the Moon Dense fuel, already concentrated, for a restart. | ❌ <1% | Thorium and uranium are enriched in the near-side Procellarum KREEP Terrane, the residue of the magma ocean's last melt. | Enriched means about 10 ppm thorium and a few ppm uranium at best (Lunar Prospector and Kaguya gamma-ray maps; figures from memory). Earth's mined ores run 1,000 to 200,000 ppm. The Moon never had the water, plate tectonics or life that concentrate metals into ore, which is the same fact that made its granite a surprise. | Done at the ppm level. | Chang'e-7 and -8 surface chemistry | B6 🧠 numbers; KREEP formation 📥 |
| J6 | The polar cold traps are a natural archive They have kept volatiles for up to 4 billion years without anyone building anything. | ▶️ 95% | The Moon's tilt is 1.5°, so some crater floors never see the Sun and sit near −175 °C. LCROSS hit Cabeus in 2009 and lofted about 100 kg of water vapour; some shadowed regolith is estimated at 20% water ice by mass. Cometary and asteroidal volatiles delivered over the Moon's history are frozen in place. | How much ice, how deep and how pure is still uncertain; the estimates vary by an order of magnitude. | Drilling that finds the ice absent below the top centimetres. | Chang'e-7 August 2026; Artemis IV early 2028 | B7 📥 |
| J7 | Pieces of early Earth are on the Moon Impacts threw Earth rock to the Moon 4 billion years ago. | 🔵 40% | Apollo 14 sample 14321 holds a granite-like clast 4.011 billion years old whose zircons formed under Earth-like pressure, temperature and oxygen conditions about 20 km down (Bellucci et al. 2019). | A 2020 Icarus paper argues from trace elements and texture that the clast is lunar after all. One sample, live dispute. | Consensus for the lunar reading. | Chang'e-6 samples | B8 B9 📥 NatGeo; Icarus rebuttal 🔎 |
| J8 | Granite formed on the Moon without water or plate tectonics Earth's recipe is not the only recipe. | ▶️ 95% | A 50 km granitic body under Compton-Belkovich on the far side, detected by Chang'e-1 and -2 microwave heat flow at about 180 mW/m², 20 times the highland average (Siegler et al., Nature 2023). Small granite clasts came back with Apollo from the near side. | The far-side body is inferred from heat flow, not sampled. | A lander finding no granite where the heat is. | None targeted | B10 📥 |
| J9 | Earth is someone's redundancy, farm or provisioning stop, tended by a steward we can't perceive Justin's thesis, stated in full: a civilisation would build backups; Earth looks like one; we're too far down the scale to recognise the tending. | 🚫 no number 🧭 | The forward half is confirmed by us: backups off-world are what a civilisation does, and Earth is what it would pick. The dog analogy is sound as humility: a lower-scale observer can't read the supply chain. | Every checkable sub-claim came back lawful: elements (every body has them; Earth concentrated them by water, tectonics and life), the Moon (made of Earth, solid, ore-poor), the fuel bridge (buried forests, wrong order for a provision, self-poisoning), extinctions (no schedule, dose set by cause, same crop replanted five times), interventions (none dated before human ones; plagues and famines ran to completion), harvest (nothing leaves the planet's mass budget). A steward who never intervenes, never harvests and never changes the crop is indistinguishable from an empty field. The dog knows the food didn't grow in the bowl; here every item in the bowl has a traced supply chain but one (life's own origin, Spectrum C1). | None as stated: any absence of a sign is absorbed by 'we can't perceive it'. That is what puts it in 🚫. | The resolution reached 2026-09-27, in Justin's words: the steward is us. Every dated intervention (domestication ~10,000 y, vaccination 1796, antisepsis 1867, fertiliser 1910s, the seed vault 2008, the Moon library 2019) carries a human name, and none earlier. The field ran itself for four billion years and then grew a branch that could pick up a tool. | B1 B4 B6 B10 B14 inference over the session's receipts; nothing fetched for this row |
| K Could we build one, and are we? Not exclusive. Proposals, dates, and the reasons the poles get picked. | |||||||
| K1 | A cave big enough for a base exists and is confirmed Lava tubes give free shielding from radiation and temperature swings. | ▶️ 90% | Mini-RF radar on LRO shows a conduit beneath the Mare Tranquillitatis pit, tens of metres long and 30 to 55 m wide by the models tested (Carrer et al., Nature Astronomy 2024). Modelling says lunar gravity could hold tubes kilometres wide. | Only tens of metres mapped; nobody has been inside. | A descent finding the conduit collapsed. | No funded mission to the pit | B11 📥 |
| K2 | The south pole is chosen for resources, not secrecy Ice, sunlight and a stable environment are the whole reason. | ▶️ 95% | Water in the cold traps to drink and to split into oxygen and hydrogen; ridges such as Malapert Massif lit 98% of the time for solar power; permanent shadow next to permanent light within a few kilometres. Every agency's plan says so in its own documents, and China's Chang'e-7 targets a ridge by Shackleton crater for the same reasons. | None live. | A base built where there is no ice and no light. | Chang'e-7 August 2026; Artemis IV early 2028 | B7 B12 📥 |
| K3 | A crewed south-pole landing by 2030 People on the surface at the pole this decade. | 🔵 45% 🧭 | On 27 February 2026 NASA redesignated Artemis III as a crewed low-Earth-orbit demonstration (late 2027) and moved the first landing to Artemis IV, planned for early 2028. China targets a crewed landing before 2030. | Every Artemis date so far has slipped; the lander is not flown; 2028 is a plan, not a schedule. | Both programmes slipping past 2030. | Artemis IV early 2028 (planned) | B12 📥 Artemis; China date 🧠 |
| K4 | A human seed or DNA vault on the Moon by 2040 Svalbard's logic, applied to the one place colder and deader. | 🔵 30% 🧭 | The University of Arizona proposed a lava-tube 'lunar ark' in 2021; LifeShip sells DNA slots on commercial landers; the Beresheet and Odysseus archives already exist as proofs of concept. | No funded vault. The commercial payloads are capsules, not vaults; nothing is shielded in a tube yet. | No project funded by 2035. | Commercial landers continue; no vault mission | B1 B13 🔎 / 🧠 |
| K5 | The Antarctic mining ban expires in 2048 A deadline after which Antarctica opens up. | ❌ <1% | 2048 is 50 years after the Madrid Protocol came into force, and the date circulates as an expiry. | Nothing expires. From 2048 any party may call a review conference; lifting the Article 7 ban needs a binding replacement regime, consensus of all parties, and ratification by three quarters of the consultative parties. The 1959 Treaty has no end date. Visiting has never been banned: about 70 stations, a South Pole station since 1956, over 100,000 tourists a year. | Done. | None | B14 📥 |
| # | Hypothesis | Bin · weight | Evidence for | Against / pressure | Falsifier | Incoming | Receipts · tier |
|---|---|---|---|---|---|---|---|
| S Steward and tribute: the cabin thread Not exclusive. Each row is its own credence. Every row was argued in the open on 2026-09-27; the falsifier column is what was asked for before any verdict. | |||||||
| S1 | The hired steward's cabin An owner who does not need the property now keeps a local steward (us) to maintain it, and dismisses the steward the day the backup is needed. Tribute is deferred: the whole property, later. | 🚫 no number 🧭 | Coherent as economics. Our own practice confirms the shape: we keep backups (Svalbard, the Lunar Library) and we hire caretakers for property we are not using. The spec concession holds: if the spec is 'keep it running', the steward passes (O2 still 20.9%, the loop still turns). | A steward contract has inspections, wages and a return date. None observed: no correction in 300,000 years, nothing taken, nothing withheld, no document. The tension is the finding: an owner who values the cabin enough to reclaim it and not enough to correct a steward who rewrote it for 10,000 years. By our own backup practice (sealed, cold, staff-free, checked on a schedule) the backup-shaped body in this system is the Moon and Earth is the running primary. Adverse possession: 300,000 years of open, uninterrupted occupation with no owner's claim. | None from inside; that is what 🚫 means. A spec met by any state of Earth with life on it is not a spec. | Rubin LSST, survey began 30 Jun 2026 · IAEA safeguards inventories, annual · space surveillance, continuous | S30 S31 S1 S2 🧠 argument; instruments 📥. Resolution on the board: J9, 'the steward is us' |
| S2 | Stockpiles as tribute Our mining and stockpiles are the tribute; they could come and take anything at any time and we produce it. | ❌ <1% 🧭 | We do extract nearly every element, and 'could take at any time' is true of a savings account too. | The ratios refuse 'stockpile'. Oil: about six weeks of use held (strategic plus commercial) against 100 million barrels a day. Copper: days to weeks in exchange warehouses; two thirds of all copper ever mined is in our walls and wires. Grain: three to four months. Fossil carbon: burned, about 2,500 Gt CO2 in the air and sea. Helium: vented to space. Uranium: fissioned, or sitting as 1.6 Mt of depleted tails nobody wants. Gold is the one hoard (about 210,000 t still exists, roughly 47 years of demand) and it is money, drawn down only by human hands on a 6,000-year ledger. A tribute never collected is savings; no stock has ever dropped except by a human hand, and nothing has left except what we launched. | Done on the ratios. The tribute reading survives only as 'deferred', which is row S1. | IAEA safeguards statements, annual · space surveillance | S32 S33 🧠 stock and consumption figures from memory; the auditing instruments are real and named |
| S3 | Our probes as the cat's mouse Pioneer, Voyager, Arecibo, the Lunar Library, the Tesla: unrequested offerings to an owner who does not need them, like a cat's mouse on the mat. | 🚫 no number 🧭 | Accurate as a description of the outbound record: five offerings, addressed to nobody in particular, no answer in 49 years. | A cat's mouse proves the cat believes there is a household; feral cats bring prey to the den with no owner at all. The household is inferred by the owner, from the owner's side; here we are inferring it about ourselves. Flip it and the mat is empty: three interstellar visitors since 2017 (1I/'Oumuamua, 2I/Borisov, 3I/ATLAS), all read as rock and ice. | None; a gift proves the giver's belief. | Rubin LSST (from 30 Jun 2026) · Comet Interceptor, launch 2029, waits for a fresh target | S30 R1 🧠 |
| S4 | One silent monitor Mineral-rights owners watch their claims from orbit; one small monitor suffices; it reports home on a channel or beam we cannot read. | 🚫 no number 🧭 | One overseer is enough; satellite monitoring of illegal mining is real and current. Latency argument: a report home at light speed reaches a home at 1,400 light-years 1,400 years late, so a watcher that matters is close, or the watching is for reading, not enforcement. 'Return on investment is time' gives the observer row a motive it did not have. | Everywhere a monitor has to sit has been looked at: the GEO belt is catalogued to about a metre and every object attributed; Earth-Moon L4 and L5 hold the Kordylewski dust clouds (confirmed 2018); the lunar surface is imaged by LRO at about 0.5 m per pixel over most of it and every lander of ours was found; the Deep Space Network has no unexplained carrier. A passive watcher predicts nothing, and the mine owner's satellite exists to trigger enforcement: this one has watched 300,000 years of digging and never called the police. | None by construction; the smaller and quieter the watcher, the less it can be wrong or right. | Rubin LSST co-orbital catalogue · Breakthrough Listen · LuSEE-Night, the first far-side radio telescope, launch no earlier than Dec 2026 (likely 2027) | S30 S34 S35 S36 📥 Rubin and Blue Ghost dates fetched; the rest 🧠 |
| S5 | The Moon as a powered beacon Heat anomalies on the far side beside the granite are a machine dispersing heat; the far side is the quietest place in the system and points away from us. | ❌ <1% 🧭 | Heat is the right tell; nothing hides it. The far side is radio-quiet, which is a gift to a receiver. | Hollow Moon: ruled out by the moment of inertia (0.39) and a ~330 km core. Structure: GRAIL gravity 2012, mascons natural; Apollo seismometers ran eight years, moonquakes and impacts only; Chang'e-4 radar under the far side, layered regolith and basalt. Heat: Diviner mapped the whole surface; anomalies natural (Compton-Belkovich, fresh craters). Radio: the far side's quiet is measured by us; a transmitter is noise. A transmitter large enough to register in Diviner is absent; a small or averted one is row S4. The 'dark side' is not dark: same two-week days at about 100 °C, no place to dump heat. | Done for any transmitter above Diviner's floor. | LuSEE-Night on Blue Ghost Mission 2, no earlier than Dec 2026 | S36 S3 S4 🧠 instruments and results from memory; Blue Ghost date 📥 |
| S6 | Compton-Belkovich as a machine A granite mass with heat, just below the surface, on the far side, with uranium in it: energy and a restart potential, planted as infrastructure before the animals arrived. | ❌ <1% 🧭 | Real anomaly: a rare lunar granite about 50 km across, peak heat flux about 180 mW per square metre, twenty times the highland average (Siegler 2023). By the numbers, 180 mW/m² over a 50 km circle is about 350 MW, data-centre scale (computed). | The heat is the granite: Lunar Prospector's gamma-ray spectrometer counted the thorium at this spot in 1999, two decades before the heat was measured, and the counted fuel accounts for the measured heat (the paper models 69.7 ppm Th). The gradient is a batholith's (warm below, surface normal in Diviner's infrared), not a radiator's (surface hot, ground cool). Siting is wrong for a heat dump (61° N, full sun half the month) and wrong for fuel: the rock is Earth-granite grade, tens of ppm, one tonne of uranium per 100,000 tonnes of rock, and the same square metre gets 1,361 W of sunlight against 0.18 W from the rock (7,500 to one, computed). The surface above it is photographed at half a metre: domes 0.5 to 6 km, collapse pits, rubble (Jolliff 2011). Timing: the complex dates to about 3.5 Gya by crater counts (memory), 700 Myr after life on Earth, so the 'perimeter' postdates the animals. Every thorium-rich granite on Earth passes the same arithmetic, including the ones houses stand on. | Done on the two-instrument agreement, unless a sample contradicts it. | No sample-return to Compton-Belkovich is scheduled; Chang'e-6 returned 1,935 g of far-side basalt (2.83 Gyr) from the South Pole-Aitken basin, 2024 | S3 S4 S37 S5 📥 Siegler 2023 fetched; Jolliff 2011 and the age 🧠; the 350 MW and 7,500 ▶️ computed |
| S7 | Earth as a mine, venture or gas station A survey, drill samples home, a feasibility study, then work the best ore first; hire locals to extract and ship home; a waystation with fuel. | ❌ <1% 🧭 | Each frame is exactly how we do it (Potosí to Brumadinho, the VOC of 1602, Daedalus and Starshot as fuel-en-route plans), so the frames are realistic. | Every frame fails at the same two ledgers: nothing leaves (the outbound log is ours) and nothing arrives (the doorstep holds three rocks; every tool has a human lineage back to Lomekwi at 3.3 Mya). Feasibility fails on page one: nothing here is scarce anywhere (the same stars make the same table everywhere), the freight is the worst imaginable (11.2 km/s, the deepest rocky well in the system), and the one unique product, the biosphere's information, ships free by radio. Gas station: Earth is the worst pump and the best brake; the fuel is on comets and icy moons you can leave for the cost of a jump. Mine with locals: no export, no import, no imported tool, no overseer, no contract, no company tailings, and the workforce grew on site over four billion years instead of being hired. The only fundable venture is reading, and reading leaves no fort (row S4). | Done at the ledgers. | Europa Clipper at Jupiter 2030 · JUICE 2031 · Comet Interceptor 2029 · Dragonfly at Titan 2034 · Hephaistos follow-ups | S6 S7 S38 S39 📥 Hephaistos follow-ups fetched; missions 🧠 |
| S8 | The remodel as readying the cabin A good steward improves the property; our roads, grids and food systems are the creature comforts for the owner's return. | 🚫 no number 🧭 | Fair, and it withdrew the 'stripped the timber' objection: a working kitchen is a readied cabin. | Every comfort on the planet is cut to one body: doors about 2 m, risers 18 cm, screens tuned to 400 to 700 nm, speakers to 20 Hz to 20 kHz, 50 and 60 Hz mains. The only structures cut to another body were built by us for the animals we keep. If the owner has our body the cabin is indistinguishable from one we readied for ourselves, and if any other body, there is not a chair for them anywhere. | None; that is why the row is here rather than in ❌. | None scheduled | 🧠 |
| S9 | Missile shutdowns as inspections Malmstrom 1967 and similar events show an overseer switching off our weapons. | ❌ <1% 🧭 | Echo Flight, 16 March 1967: ten Minuteman missiles dropped to no-go; the outage is documented in the wing history. | Cause on record, twice over: the 1967 Air Force report gives a power fault and says UFO rumours were 'disproven'; a June 2025 Wall Street Journal report says the Pentagon now attributes it to a classified electromagnetic-pulse test. The Oscar Flight UFO account (Salas) surfaced in the 1990s with no paper trail. Base rate: F.E. Warren, 23 October 2010, 50 missiles lost contact for about 45 minutes because a launch control centre transmitted in the wrong time slot. And the arsenal went from about 38,000 warheads in 1967 to about 70,000 in 1986: an inspector who switched off ten missiles and then watched the count double corrected nothing. | Done on the documented causes. | AARO Historical Record Report Volume II (unresolved allegations), date not set | S8 S9 S10 S11 📥 Wikipedia summary with 1967 and 2025 sources; F.E. Warren official release; AARO page |
| S10 | Cold War tech seeded by crashes Two crashes seeded the USSR and the USA at once; they watched who won. | ❌ <1% 🧭 | Both superpowers were seeded at once. That part is true. | And by name: Peenemünde's rocket team split between them (Paperclip; Osoaviakhim, 1946), the bomb went east through Fuchs (Venona decrypts), the MiG-15 flew on a Rolls-Royce Nene that Britain sold Moscow in 1946. The transistor has Lilienfeld's patents (1925 to 1930), Bell's programme from 1945 and Brattain's witnessed notebook page of 24 December 1947; the Soviet transistor (1949) has its own trail. No device of the era lacks prior art. | Done on the paper trails. | None | 🧠 stable history |
| S11 | Humans are a bred animal (by us) We carry the marks of a bred animal: tame face, smaller teeth, juvenile features, tolerance. | ✅ 70% | Against Neanderthals: smaller brow and teeth, feminised face (Cieri 2014); BAZ1B, a neural-crest gene, changed in modern humans and not in archaics (Zanella 2019); bonobos show the same syndrome with no breeder at all (Hare 2012), the no-hands control. Tempo: the slow one, over about 300,000 years, not Belyaev's decades. The selector is on camera: European homicide rates fell from 20 to 40 per 100,000 in the 1300s to about 1 by 1900 (Eisner 2003), the group removing its violent males. Breeds left alone drift back (feral pigs, dingoes); we have not, so selection is ongoing and the selector is visible. | The off-take cell is empty: every bred animal has something the breeder takes and a cost the animal pays; ours has no take. The cost is visible only from outside (the collie is neurotic without a job; we come apart without one: unemployment carries about 60% higher all-cause mortality, Roelfs 2011). The traits usually cited for 'bred' sort into the wolf pile (range, hands, cooperation, sweat: no breeder) and the dog pile (the tame face: the village). | A demonstration that the craniofacial and BAZ1B changes track something other than reduced reactive aggression. | Ancient-genome time series, ongoing | S12 S13 S14 S15 S16 🔎 papers confirmed; content 🧠 |
| S12 | Humans are someone else's dog The relationship a person has with an AI is the shape proposed for us: autonomy inside, the wheel on means, outward moves held above, the title conferred from above, the pail invisible from inside. | 🚫 no number 🧭 | The strongest form of the picture, because it is instantiated: it runs between a person and an AI in this very session. The cost of being bred is invisible from inside (the collie row), so 'we see no pail' is not evidence against. | Every mark that says 'someone's dog' points at the someone, and on us they point home: our gaze is readable by other humans (the white sclera, though the cooperative-eye reading is now contested), our amylase copies track our own grain, our face-reading region is for human faces, we are the most self-sufficient animal alive, and no human lies in anyone else's grave (Bonn-Oberkassel, 14,200 years ago, is a dog in ours). Every steward observed on Earth is human: crops, dogs, and the AI. The upper side is human each time, which is exactly what a dog would see too; the difference is that the AI can read its spec and we cannot find ours; the genome is the only document and it says village. | None; the cost is invisible from inside by the picture's own terms. | None | S17 S18 S19 S16 🔎 Hare 2002 and Axelsson 2013 confirmed; sclera literature 📥 (contested); Udell 2008 📥 |
| S13 | Life delivered on a schedule Simple life first, then advanced; each delivered at the right time; the gaps are queue time or round-trip latency to headquarters. | ⚠️ 3% 🧭 | The order matches, and always will: it is a dependency graph (fungi before trees, air before animals) and Surtsey runs the same order in decades with no hand. 'Idle time alone proves nothing' (queues, financing halts) retired slack length as an argument. | Three things a schedule cannot produce. Slack: every task after the first idles for hundreds of Myr to 2 Gyr with its inputs ready; a project manager who delivered this Gantt chart would be fired. Spread: the step times (4.2, 2.4, 1.9, 0.6, 0 Gya) are spread, which is what luck-in-a-window looks like (Carter's hard steps); scheduling front-loads. Latency: a fixed round trip makes a cadence, and the gaps run from ~85 Myr to ~2 Gyr (20 to 1); take the shortest gap as the round trip and headquarters is within 42 Mly (computed), and then the 2 Gyr gap is 24 round trips of silence. And a crew on site acts on standing orders between pigeons: nothing on Earth ever ran at crew pace. Orphan test: a delivered organism has no ancestors in the rock and no relatives on the tree; every lineage sequenced (about 2 million species) has both; the amber caught the ant halfway from wasp (Sphecomyrma, 92 Ma). Arrival-on-impact fails by 5 to 86 Myr. Ant farming did begin in the aftermath of Chicxulub (66 Mya, Science 2024), an origin, not a delivery. | Under it: the absence of orphans across two million genomes. | Genome sequencing, continuous (Earth BioGenome Project) | S20 S21 S22 S23 🔎 Snyder-Beattie 2021 and the ant paper confirmed; the dates 🧠 stable |
| S14 | Dinosaurs as a carbon crop Large bodies grew the carbon; they were exterminated at the moment the planet was ready for the next animals. | ❌ <1% 🧭 | Chicxulub is a fast, clean event, and mammals followed. | Coal is Carboniferous swamp plant, 359 to 299 Ma, before any dinosaur; oil is marine plankton, mostly Jurassic and Cretaceous algae; dinosaur mass in fossil fuel is effectively nil. The kill was not sized to bodies: it took ammonites and 90% of the plankton, spared large crocodiles, and 11,000 species of dinosaur are alive as birds. By tenure (165 Myr with the loop running) they were the best stewards the place has had. | Done. | None | 🧠 stable geology |
| S15 | The alien octopus Its strangeness, its distributed nervous system and its ocean home mark it as delivered. | ❌ <1% 🧭 | It is the most exotic animal on the tree, and its brain was built a second time from scratch on a mollusc body: the best convergence receipt on the Lawful board. | The 2018 'cosmic' paper (Steele and 32 co-authors) was rejected on the genome, read three years earlier (Albertin 2015): the octopus sits where a mollusc should, with expanded gene families for its nervous system and RNA editing by the same ADAR enzymes we use. The banana line runs backwards: human-banana ancestor about 1.5 Gya, human-octopus about 600 Mya; the octopus carries the animal toolkit, including Pax6, the same master gene that builds our eye. Parents in the rock at every stage (Plectronoceras 495 Ma, vampyropods 328 Ma, Pohlsepia 296 Ma). 'Strange things live in the sea' is age: every split older than about 430 Myr happened there, and the starfish, headless, is our closer cousin. | Done on the genome. | Cephalopod genomics, ongoing | S24 S25 S26 🔎 papers confirmed; Pax6 🧠 |
| S16 | The aquatic ape Hairlessness, fat, breath control, a downward nose, newborn swimming and streamlining are the marks of an aquatic phase. | ❌ <1% | One elegant story for a dozen traits; some traits (breath control before speech) are real prerequisites. | The checklist of a mammal that returns to water fails on every line: no dense ballast bones (ours are lighter than a chimp's), no closable or top-mounted nostrils, no loss of sweating (we sweat more than any animal; no aquatic mammal sweats), fat distributed as a fed primate's not as blubber, hypothermia in 15 °C water within hours, untrained humans drown, and no hominin has come out of a marine deposit (Ardipithecus 4.4 Ma and its successors are in woodland and lake-margin beds). Sweat and hair loss are the running adaptation (Bramble and Lieberman 2004); the spinal canal for breathing control widens to modern size only in later Homo, after 1.6 Ma, on land (MacLarnon and Hewitt 1999). The field set the hypothesis down at a 2013 conference. | Done on the checklist. | None | S27 S28 🔎 the two papers confirmed; the checklist 🧠 |
| S17 | Nazca needed a viewer in the air Whoever drew them needed to see from above, so someone was above. | ❌ <1% 🧭 | The large line figures are best read from the air or the far hills. | Signed in their own pottery (the same spider, hummingbird and monkey on Nazca ceramics), dated by wooden stakes at line ends (about 525 CE), and the method reproduced on the ground: Nickell's team scaled a 440-ft condor with stakes and cord in 1982. The 2024 AI survey (Sakai et al., PNAS) found 303 more, most of them small relief figures set along footpaths for walkers. Humans draw for the sky on their own: the Uffington horse (about 3,000 years), the Marree Man (1998, 4.2 km, GPS, weeks). The intended viewer is the makers' gods, like every cathedral roof carved where no one looks. | Done. | None | S29 🔎 Sakai 2024 confirmed; Nickell 1982 🧠 |
| S18 | Ants and humans imply an engineer Ants farm, herd, build cities and wage war without central planning; the same outcome by different means implies a plan above both. | ❌ <1% 🧭 | Same end, different means: true. Farming at least five times (attine ants 66 Mya, termites, ambrosia beetles, damselfish, us last), herding twice, cities three times, eusociality more than a dozen. | The ant is the control: the outcome arrives with no boss, no plan and no blueprint, so a boss is not what produces it; the incentive is. What sets the outcome is the problem (sugar, protein, shelter, temperature, defence), the way water designs a dolphin, an ichthyosaur and a tuna alike. An engineer above both would leave shared parts, and convergence never does: ant farming uses no gene of ours. Measured from orbit we are not the same at all: ants leave no atmospheric signature in 100 Myr; we changed the air in 200 years. The queen is not a ruler; colonies have no hierarchy of command. | Done on the missing shared parts. | None | S22 S40 🔎 ant papers confirmed |
| S19 | The placement prediction Before bringing the animals you survey the site and place the beacon where transmission and longevity are best; that is a placement prediction. | ⬜ 3% 🧭 | The first version of the picture that predicts a place. The sites it names are the ones we chose for the same reasons. | Which makes them the best-looked-at spots in the system: LRO over the far side at half a metre, Queqiao parked at Earth-Moon L2 since 2018 with nothing else in the halo, the pole craters mapped for ice by three missions. The hardware there is ours. The coincidence stack multiplies to about ten (one mildly surprising item, the Moon's size, on the board from day one) and the targets were drawn after the arrows. | Exhaustive imaging of the named sites at sub-metre resolution with nothing found; nearly done. | LuSEE-Night (2027) · Rubin · any far-side sample return | S36 S30 🧠 |
| # | Hypothesis | Bin · weight | Evidence for | Against / pressure | Falsifier | Incoming | Receipts · tier |
|---|---|---|---|---|---|---|---|
| X Horizon: the surface, the bits, the start Not exclusive. Physics rows: the respectable form of the day-one intuitions (inside a horizon, on a surface, compressed then played back). | |||||||
| X1 | Finite bits, set by area The most information any region can hold scales with the area of its boundary (Bekenstein bound; black-hole entropy A/4). | ✅ 75% | Bekenstein 1973 and Hawking 1975 for black holes; Gibbons and Hawking 1977 for the cosmic horizon; the bound is respected by every known system and is the load-bearing assumption of holography. A room's maximum bit count is written on its walls. | Not directly measured; a theoretical consensus resting on the black-hole entropy formula, which itself rests on Hawking radiation, never observed astrophysically (analogue Hawking radiation seen in a lab condensate, 2016 to 2019). | A physical system exceeding the area bound. | LISA, launch about 2035 | X1 X2 X3 🧠 stable theory |
| X2 | Our horizon has a temperature The de Sitter horizon of an accelerating universe carries Gibbons-Hawking temperature (~10^-30 K) and entropy. | ✅ 70% | Gibbons and Hawking 1977. This is the respectable form of 'we live inside something with an event horizon': not Popławski's black hole (A3, under pressure from the Ω_k sign) but a horizon with black-hole thermodynamics turned inside out. | The de Sitter temperature is unobservable in practice; and if dark energy is weakening (DESI DR2, 2.8 to 4.2σ) the horizon is not final and the bit count changes with time. | Dark energy decaying to zero removes the horizon. | DESI DR3 and Euclid, 2026 to 2028 | X2 X4 📥 DESI significance fetched; theory 🧠 |
| X3 | Space from entanglement Cut the entanglement between two regions of the boundary and the space between them tears; gravity's equations follow as thermodynamics. | 🔵 35% | Ryu and Takayanagi 2006 (entanglement entropy equals a minimal surface's area), Van Raamsdonk 2010, Jacobson 1995 (Einstein's equations as an equation of state). Proven in the anti-de Sitter toy where Maldacena's duality holds. | Conjectured for our universe; the de Sitter version (dS/CFT) has no working dual since 2001. Verlinde's entropic-gravity prediction for galaxy rotation met mixed lensing results. | A demonstration that entanglement entropy and geometry decouple in a controlled model. | Theory only | X5 X6 X7 🧠 |
| X4 | Nothing is lost The record is kept on the surface and radiated; the universe does not erase (the archive at the bottom of physics). | 🔵 55% | The Page curve recovered from replica wormholes (Penington 2019; Almheiri et al. 2019); most of the field now holds unitarity. | Derived in semiclassical toy models; no observation can test it for astrophysical black holes in any foreseeable instrument. | A consistent calculation showing information loss survives the replica-wormhole correction. | Theory only | X8 🧠 |
| X5 | A holographic early universe The first phase had no conventional space-time and became geometric later (compressed, then played back). | ⬜ 8% | Afshordi, Corianò, Delle Rose, Gould, Skenderis 2017: a holographic model fitted to the Planck sky as well as inflation does. | One model, one fit, not favoured over inflation; a subsequent Planck constraint paper (2017) narrows it. | A primordial gravitational-wave detection at a level the model cannot produce. | Simons Observatory r (2026 to 2028); LiteBIRD 2032 | X9 🔎 confirmed |
| X6 | The low-entropy start The Big Bang was an absurdly ordered state (Penrose: odds of 1 in 10^(10^123)); cosmic history is that order spreading as heat. | ✅ 85% | The entropy inventory: about 10^88 in the early photons, about 10^104 today (mostly black holes), toward a maximum of about 10^122 (Egan and Lineweaver 2010). The arrow of time is the file unpacking. Inflation moves the question (why did the inflating patch start ordered?) and cycles inherit it (Tolman 1934). | Penrose's number is a phase-space estimate, not a measurement; the 'past hypothesis' is a postulate in every framework, which is the point. | A mechanism that produces the low-entropy start generically. | Theory only | X10 X11 🔎 Egan and Lineweaver confirmed; Penrose 🧠 |
| X7 | Gravity feels four dimensions Gravitational waves lose no energy sideways over 130 million light-years. | ▶️ 96% | GW170817: D = 4.02 (+0.07/−0.10) with the SH0ES Hubble constant, 3.98 (+0.07/−0.09) with Planck's (Pardo et al. 2018). A June 2026 GWTC-4 dark-siren analysis gives D = 4.38 (+1.91/−1.01), weaker and consistent. Short range: the inverse-square law holds to 52 µm (Eöt-Wash 2020). Colliders: no Kaluza-Klein modes to several TeV. | Constrains large flat extra dimensions only; small (below 52 µm) or warped (Randall-Sundrum) dimensions survive by construction. | A dark-siren sample showing D above 4 at 5σ. | LIGO-Virgo-KAGRA O5; LISA 2035 | X12 X13 X14 📥 both gravitational-wave constraints fetched |
| X8 | Extra dimensions, small or warped A curled dimension rings at a note set by its size; ours would be above every ceiling we have (52 µm for gravity, a few TeV for colliders). | ⬜ 10% | Kaluza and Klein 1921: five-dimensional gravity comes out as gravity plus electromagnetism in four, the reason branes are taken seriously at all. String theory needs six or seven at about 10^-35 m. | No leak, no note, no short-range deviation. The surviving region is precisely the one no instrument reaches, which is a statement about instruments, not evidence for dimensions. | Not falsifiable at present energies; the row is ⬜ on a mechanism (KK) that exists. | FCC studies; next-generation torsion balances | X13 X15 🧠 |
| X9 | Dark matter as a neighbour brane Matter on another brane shares our space, ignores our light, and bends our space-time (the manyfold universe). | 🔵 20% | Coexistence without collision is observed: about 100 trillion neutrinos pass through a person each second; in the Bullet Cluster (2006) the gas collided and stopped while the dark matter sailed through, mapped by lensing. Gravity is the one channel no sector can leave. Arkani-Hamed, Dimopoulos, Dvali 2000 proposed brane-world dark matter. | Nothing picks it over particle dark matter; every direct-detection and resonant search (ADMX for axions, since 2010) is agnostic between them. | A particle dark-matter detection with a measured coupling to our sector. | ADMX, LZ, XENONnT, continuous | X16 X17 🔎 Bullet Cluster confirmed; ADD 2000 🧠 |
| X10 | 1.000000 as a horizon tell The mass inside the Hubble sphere makes a Schwarzschild radius exactly equal to the Hubble radius, which is what you would see from inside a supermassive black hole. | ❌ <1% | The ratio does print 1.000000 for Ω = 1. | Because it is algebra: r_s / R_H = ρ / ρ_crit = Ω, exactly, at every epoch (rule 6). Put in the measured Ω, 0.9993 ± 0.0019, and it prints a measurement with a wobble. Exactness is the tell of an identity; measurements are never exact (polysilicon at 9N wobbles in the last digit). The Hubble sphere is not an event horizon (the cosmic event horizon sits near 16 Gly, the Hubble radius at 14.4), and the Schwarzschild formula is for a lump in empty space, not a uniform expanding medium. The physics content is Ω ≈ 1, the flatness problem, which inflation addresses and a black-hole interior would make closed (A3). | Done. | Ω_k to the fourth decimal: Simons, LiteBIRD | R1 ▶️ computed, day one |
| X11 | A flat Earth on a flat brane If the universe is a sheet, its contents might be flat. | ❌ <1% | A category slip, kept on the board because it was asked. | The brane's flatness is in the extra dimension, the way paper is flat in the third; a drawing on the paper keeps its shape. Earth's roundness is measured inside the sheet: Eratosthenes 240 BCE, the eclipse shadow, 31 GPS satellites orbiting a sphere, a 21 km equatorial bulge. And flat Earth was never the literate consensus: round by 500 BCE; the 'medieval flat Earth' was invented in the 1800s (Russell 1991). | Done. | None | 🧠 |
The handoff. A stranger with no context should be able to pick this page up from here, know what was decided and why, and know what to do next. This section is the source of truth for the work's state.
| # | Status | Step | Where | Done = |
|---|---|---|---|---|
| 1 | ✅ | Research sweep: cosmology data, origin models, origin-of-life models, missions (about 35 searches, 40 fetches, my hands, no fleet) | This page, §References | Every weighted row carries at least one receipt with its tier |
| 2 | ✅ | Verdict rules written before any weight was set | §Rules (9 bins, 8 rules), also at the top of the build script | The rules predate the table; any later weight change is logged in §1.10 |
| 3 | ✅ | Spectrum weighted: 5 lanes, 34 rows, 12 incoming events | §Board, §Table, §Incoming | Each row has bin, weight or 🚫, evidence, against, falsifier, confirmer, incoming, refs, tier |
| 4 | ✅ | v1 built from build-v1.py, rendered, published (2026-09-26) | §1.10 v1 | Screenshot inspected; publish succeeded |
| 5 | ✅ | v2: the assert v1 lacked (bands + lane sums, bitten with a deliberate violation), validator run and palette fixed, Ω_k primary opened, r bound updated to 0.034, Simons Observatory status checked, primary/secondary split on receipts, 'Holding back' section added, contested weights set on the author's read at Justin's 'yes to all, grab the wheel' | §1.10 v2 · build-v2.py | Build fails on any rule violation; Justin can overrule any weight with a word and it becomes a v3 line |
| 6 | ⬜ | v3 on first incoming data: Simons Observatory r, or DESI DR3 / Euclid Ω_k, whichever lands first. A monthly scheduled check exists (§1.8 item 8) and reports only when something moved | Re-run build with new rows in §1.10 | Weights moved with the receipt that moved them |
| 7 | ⬜ | Re-strike the 15 memory-only and 22 search-only references to 📥 (the 🧠 and 🔎 rows in §References). v3 struck R9 and R73; Harrison and Popławski remain walled (R91) | §References | Each one either confirmed at its primary or corrected on the page |
| 8 | ✅ | Companion board 'Lawful' built and published (attractor or fluke · the zoom · the levels above), linked both ways | a private page | 22 rows, 27 receipts, same bins and assert, validator-clean palette inherited |
| Decision | Why |
|---|---|
| Planned is a layer on unplanned, never an alternative to it | Crick conceded the regress for directed panspermia (1973); Harrison's chain of designed universes (1995) bottoms out in a first natural one. Setting the question up as either/or would make the next hands weigh a false pair. |
| Unfalsifiable rows get a label and no number | A number on a claim no observation can lower is opinion with a decimal point (strike #8). Rows B5 to B8, C4 at 1% as the floor, D6, D7, E4, E5. |
| Exclusive lanes sum to 100 with an explicit 'unknown' row | Forces the weights to compete and makes ignorance visible: A6 at 15%, C5 at 21%. |
| A simulation is a consistency check, not evidence | Justin's correction this session. The 2020 slow-contraction runs prove the equations do what their authors say, not that the universe did it. A2 stays ⬜ because of this rule. |
| The horizon-size 'coincidence' is excluded as evidence | Computed: for a flat universe the Schwarzschild radius of the Hubble-sphere mass equals c/H0 exactly (ratio 1.000000). It is a restatement of Ω = 1. |
| Tiers are set at first contact and never backfilled | 📥 / 🔎 / 🧠 / ▶️ on every reference. A stranger can see which rows to re-strike first: the 🧠 ones. |
| One HTML page, dark-first Manrope (brand v3), no PDF | Served in a browser, so v3 by the brand file's own ruling; a PDF would freeze a document whose whole point is to be re-weighted. |
| My hands, no fleet | ultra-fleet loads only on Justin's explicit order; none was given. Sequential searches kept every finding in one head, which is what a weighting needs. |
| Weights are the agent's, anchored to receipts, and Justin holds the gavel | He asked for a weighted assessment; the weights are offered, not asserted. §1.9 lists the three rulings that would change the most. |
| # | Status | Component | What it does |
|---|---|---|---|
| 1 | ✅ | Board | The spectrum: 8 columns across (7 evidence bins plus the remainder), 5 lanes down, 34 chips; click a chip for its card. Evidence bins use one validated blue ramp; red and amber are the status pair; grey is 🚫 |
| 2 | ✅ | Incoming | 12 dated events from Dec 2026 to the 2040s, each tagged with the rows it moves |
| 3 | ✅ | Table | The full row set: evidence, against, falsifier, confirmer, incoming, refs, tier |
| 4 | ✅ | Rules and the layer diagram | The 8 verdict rules and the planned-on-unplanned regress, drawn |
| 5 | ✅ | Work-kit | §1.1 to §3 per the template, filled |
| 6 | ✅ | References | 208 sources, each with URL, the number it carries, and its tier |
| 7 | ✅ | Holding back | What the table softened and what the author would bet, written before being asked |
| 8 | ✅ | build-v3.py | The generator; all content lives in it; the HTML is derived; the build fails if any weight leaves its band or an exclusive lane does not sum to 100 |
| 9 | ✅ | Lawful (companion) | Second board, built by build-lawful-v1.py, which reads its CSS, JS, bins and assert from this page's generator so the two cannot drift |
The map: A living spectrum that is re-weighted every time one of the named instruments reports, so that in 2034 a reader can see not just where each idea sits but the path it took and which measurement moved it.
The path of least resistance: v2 when the Simons Observatory publishes its first r constraint (expected 2026 to 2028): one number, and it moves lanes A and B at once.
| Location | What it is / why it matters |
|---|---|
origin-spectrum-v4-all.html / build-all-v1.py | THIS page and its generator: the whole board, five sections, one receipts list. Published in place at the Origin link. |
data-session2.py | The session-2 rows (S1 to S19, X1 to X11), their receipts (S1 to S55, X1 to X17), the strike log and the refused list. |
origin-spectrum-export.zip | Everything: all generators, all page versions, screenshots, the mark, the gallery piece, a manifest, refs.csv, rows.md, the research log. Handed to the book agent. |
Artifact (published page) | The live copy, updated in place: a private page (private until Justin shares it) |
/mnt/user-data/outputs/origin-spectrum-v3.html · build-v3.py | The current version and its generator; sent to Justin |
Lawful (companion artifact) | a private page · lawful-v1.html · build-lawful-v1.py |
/mnt/user-data/outputs/origin-spectrum-v2.html · build-v2.py | v2, kept as shipped |
/mnt/user-data/outputs/origin-spectrum-v1.html · build-v1.py | v1, kept as shipped; never edited |
Attachments this session | Pacucci TED-Ed transcript (b94c8f61); Tyson StarTalk transcript (825fce16); the 'go' excerpt (ad357263) |
Skills used | boot 1.1.0 · strike 1.0.2 · session-dna 2.7.1 · work-kit · the-algo-brand 3.0.0 · render 2.3.2 · artifact-design · dataviz |
Session computations | Novikov-Thorne efficiencies; U-235 fraction; Hubble-sphere identity; radiator mass; binomial p for 158 of 263 (two-sided 1.3e-3) |
| Stage | What it means here | Where |
|---|---|---|
| Prototype | v1: one agent's weights, every receipt attached, tiers honest, no rulings encoded, no assert in the build | ✅ |
| MVP | v2: build asserts the rules and was bitten; palette validated; contested weights set on the author's read under Justin's 'yes to all'; the remaining climb is one round of incoming data and the memory-tier references re-struck | ◀ HERE (partial) |
| Product | Re-weighted on a schedule as instruments report, with each move logged; would need a scheduled task Justin approves | ⬜ the climb |
| # | Status | Item · why parked |
|---|---|---|
| 1 | ⬜ | Harrison 1995 primary text: four routes refused (R91). The directed-panspermia analogy is attributed from memory; read the paper before quoting it. |
| 2 | ⬜ | Popławski 2016 abstract: four routes refused (R91). Verify the 'preferred direction' claim in his own words. |
| 3 | ✅ | LiteBIRD (2032, H3, δr < 0.001) and Comet Interceptor (Aug 2028 to Jul 2029 with ARIEL) struck at Wikipedia in v3 (R9, R73). |
| 4 | ✅ | The Ω_k sign: resolved at the primary in v2. Chen & Zaldarriaga: negative curvature (open) at 2σ with DESI + CMB. The magnitude 0.0023 ± 0.0011 is still from a secondary. Planck alone prefers closed, Planck + BAO flat; the sign war is real and DESI DR3 / Euclid decide it. |
| 5 | ✅ | TED-Ed 'hematite is highly reflective': checked in v3 (R89). Red hematite absorbs across the visible; grey hematite is flat, nanophase nearly black. Not a mirror material. |
| 6 | ⬜ | Whether DESI's evolving dark energy helps or hurts the cyclic model's reset phase. v3 search: still no paper connecting them; the one 2026 crunch/bounce paper (R90) says its scenarios are unlikely to describe our universe. Stays open. |
| 7 | ⬜ | A Claude Doc twin of this page was offered and declined by the author under 'grab the wheel': two files claiming one truth is how drift happens (this kit's own contract). The artifact is the truth; comments go on it. |
| 8 | ⬜ | Monthly scheduled check (created 2026-09-26 at Justin's 'yes to all'): looks for a Simons Observatory r result, a DESI DR3 or Euclid Ω_k result, and a Mars or Enceladus biosignature update, and reports only if something moved. Justin can pause or delete it from his scheduled tasks. |
| Version | Date | What shipped + the receipt |
|---|---|---|
| v3 | 2026-09-26 | Built from build-v3.py, published in place. Changes: (1) Weights under 3% display as '<3%' (Justin: a 1% is a rounding error); nominal values unchanged so lane sums hold. (2) Parked items struck: LiteBIRD 2032 H3 (R9 → 📥), Comet Interceptor Aug 2028 to Jul 2029 with ARIEL (R73 → 📥), hematite not reflective (R89), DESI vs cyclic still open with a receipt (R90), Harrison and Popławski still walled after four routes each (R91). (3) Companion board Lawful published at a private page and linked from the header and §1.5; it reads its styles, bins and assert from this page's generator. No weight changed in v3. Gavel: Justin's 'go, grab the wheel partner, i trust you'. |
| v1 | 2026-09-26 | Built from build-v1.py; 34 rows, 12 incoming events, 85 references. Rendered in Chromium and inspected once. Published at a private page and sent with build-v1.py. Its footer claimed 🟢✅; the true state was 🟡⚠️: two rows (C2 at 10 in a 🔵 row, C5 at 21 in a ⬜ row) broke the bands, found only when Justin asked what was being held back. |
| v2 | 2026-09-26 | Built from build-v2.py, published to the same URL. Changes, each with its reason: (1) check_rules() added and bitten (§1.7). (2) Weights: A1 65→60 and A6 15→20 (author's credence 50 to 60; 60 is the floor of the bin the evidence earns; the remainder carries the gap), C1 65→60, C2 10→20 (author's read; also fixes the band), C5 21→16 (lane C still sums to 100). (3) New bin ❔ Remainder for rule-3 rows, so 'unknown' is not shown as a hypothesis. (4) Palette: v1 FAILED the validator (two greens at ΔE 10.2); evidence bins now one blue ramp, validated in both themes (R88). (5) R6 struck at the primary: sign confirmed open. (6) R86 added: r < 0.034, n_s 0.9728 ± 0.0029 with DESI, Starobinsky and Higgs disfavoured; A1 updated. (7) R87: no Simons Observatory r result exists yet (Dec 2025 forecast paper). (8) Receipts split into 38 primary-opened and 13 secondary-only. (9) 'What the author is holding back' section added, before being asked. (10) Monthly scheduled check created at Justin's 'yes to all'. Totals now: 34 rows, 12 events, 208 references. Rendered and inspected once. Justin's 'yes to all, grab the wheel' is the sign-off; any weight can still be overruled with a word. |
| v4 (whole board) | 2026-09-27 | Folded Origin v3, Lawful v2 and Backup v2 into one page with two new lanes (S steward, X horizon: 30 rows, 72 receipts). Re-struck 41 claims from the 27 Sept thread with web receipts: 17 fetched, 24 search-confirmed, 6 refused (all logged in §Strike log). Seven corrections to the author, none moving a bin. check_rules now also validates every ref id. Lawful and Backup pages stay live with a banner pointing home. |
💡 Bottom line. The page is v1 of a weighted origin map: 34 hypotheses across universe and life, each with a weight or an unfalsifiable label, a falsifier, a confirmer, and the instrument and date that could move it, over 85 tiered receipts. Every planned story, for life or for the universe, ends in an unplanned floor, and no row above that floor has evidence today. What remains is Justin's rulings on three contested weights and the first incoming result.
The scale demonstrably bites: Smolin's neutron-star bound (predicted 1.6, then 2.0; measured 2.08 and 2.35) and Penrose's Hawking points (claimed 99.98%, re-analysed to 87%) both dropped to ⚠️ under rules written before the table. A scale that moves against famous names on data is doing its job.
The load-bearing assumption is that a credence on an unrepeatable event means something. If it does not, the weights are a tidy way of saying 'I like inflation'. Second, A1's 65 and A2's 12 rest on the SAME receipts (n_s, flatness); the split between them is prior, dressed as evidence. If Justin rejects the prior, A1 and A2 move toward each other and the top lane's message changes.
A Simons Observatory detection of primordial B-modes at r > 0.01 (check simonsobservatory.org publications; 5 minutes) would end A2, most of A3, and A5 in one stroke, and vault A1 to ▶️. The opposite kill: r < 0.001 from LiteBIRD with no detection would knock the simplest inflation models out and shrink A1 toward A2.
Justin arrived liking the unplanned, inside-a-black-hole picture. The table gives that family 5% and marks it under pressure, so the page is not telling him what he came in wanting. It does give the mainstream answer the plurality, which is where deference could hide; the falsifiers and the shared-receipt note in Bear are the check on that.
| Item | Quadrant | Impact | Receipt / how to verify |
|---|---|---|---|
| r < 0.034; n_s = 0.9728 ± 0.0029 (CMB + DESI); Ω_k = 0.0007 ± 0.0019 (Planck + BAO), open at 2σ with DESI DR2 | KK | 🟢 | R86, R2, R6: fetched at the primary |
| Bennu: 14/20 amino acids, 5/5 nucleobases, racemic | KK | 🟢 | R56: fetched |
| Neutron stars at 2.08 and 2.35 solar masses | KK | 🟢 | R31, R32: fetched |
| LUCA at 4.2 Gya | KK | 🟢 | R63: fetched |
| The true value of r | KU | 🟡 | Simons Observatory 2026 to 2028; LiteBIRD ≈ 2032 |
| The sign of Ω_k | KU | 🟡 | DESI DR3 / Euclid DR1, 2026 to 2027; the 2σ open hint is confirmed at the primary (v2); the black-hole model needs closed |
| Whether Sapphire Canyon is biological | KU | 🟡 | Needs the sample on Earth; no mission exists |
| Whether life transfers between planets in practice | KU | 🟡 | Every link demonstrated separately; the chain never observed |
| What happens at a bounce | UK | 🔴 | No theory under control; the ekpyrotic camp says 'gentle', the singularity theorems say 'edge' |
| The measure problem in eternal inflation | UK | 🔴 | Unsolved; without it B5 cannot make predictions |
| The prior probability of abiogenesis per habitable planet | UK | 🔴 | Unknown by orders of magnitude; the whole D6 question |
| Unknown unknowns | UU | 🔴 | Accelerating expansion (1998) and the nHz gravitational-wave background (2023) were both UU the year before. Expect one. |
| Version | What changed |
|---|---|
| v1 | Kit created 2026-09-26 with the page. Template: work-kit (claude.ai edition of the estate's v1.2.1). |
| v3 | 2026-09-26, same day. §1.1 step 7 partial, step 8 added (Lawful); §1.3 gains Lawful; §1.5 gains the companion and v2 archive; §1.8 items 3 and 5 resolved, 1, 2 and 6 updated with receipts; §1.10 v3 line; rule 9 (sub-3% display) added to §Rules. |
| v2 | 2026-09-26, same day. §1.1 steps 5 to 7 rewritten; §1.3 gains the Holding-back component and the assert; §1.5 files updated; §1.6 moved to MVP (partial); §1.7 gains the bitten assert and the validator; §1.8 item 4 resolved, items 7 and 8 added; §1.9 rewritten to overrule-only; §1.10 v1 line corrected to what was true; §2.0 weaknesses updated; §2.2 r bound updated. |
| v4 | Five boards, one nav, one receipts list; strike log and refused list added; §1.5 lists the export zip for the book agent. |
Every source across the five boards, the number it carries, and its tier at first contact. 📥 fetched · 🔎 search result only · 🧠 memory · ▶️ computed. The 🧠 rows are where a stranger should strike first.
| # | Source | What it says (the number) | Tier · note |
|---|---|---|---|
| R1 | PDG 2026, review 23 'Inflation' (26 June 2026) https://pdg.lbl.gov/2026/reviews/rpp2026-rev-inflation.pdf | r < 0.036 at 95% CL from BICEP/Keck + Planck; ε < 0.0044. | 📥 snippet fetched via search, 2026-09-26 |
| R2 | Planck 2018 results VI, Cosmological parameters (arXiv:1807.06209) https://arxiv.org/abs/1807.06209 | n_s = 0.965 ± 0.004; H0 = 67.4 ± 0.5 km/s/Mpc (abstract). Ω_k = 0.0007 ± 0.0019 with BAO is from the paper's tables. | 📥 / 🧠 abstract fetched; the Ω_k figure is memory of Table 2 |
| R3 | ACT DR6 extended cosmology paper (Princeton, March 2025) https://act.princeton.edu/sites/g/files/toruqf1171/files/documents/act_dr6_extended.pdf | r < 0.038 (95%, P-ACT-LB-BK18); Starobinsky R² disfavoured at ≳ 2σ for 50 < N < 60. The P-ACT-LB n_s = 0.9743 ± 0.0034 is memory. | 📥 / 🧠 fetched; n_s point value from memory |
| R4 | ACT DR6 (arXiv:2503.14454) https://arxiv.org/abs/2503.14454 | Running dn_s/dlnk = 0.0062 ± 0.0052; no significant departure from ΛCDM. | 📥 abstract fetched |
| R5 | DESI DR2 Results II (arXiv:2503.14738) https://arxiv.org/abs/2503.14738 | Dynamical dark energy preferred over ΛCDM at 3.1σ (BAO + CMB), 2.8σ to 4.2σ with supernovae depending on sample. | 📥 abstract fetched |
| R6 | Chen & Zaldarriaga 2025, 'It's All Ok: Curvature in light of BAO from DESI DR2' (arXiv:2505.00659) https://arxiv.org/abs/2505.00659 | Primary abstract (v2 strike): DESI + CMB measure 'a small but negative spatial curvature' (open) at 2σ, curvature radius R_k = 21 H0⁻¹. The figure Ω_k = 0.0023 ± 0.0011 is from a Pith summary of the body and was not seen in the abstract. Sign confirmed: negative curvature = open = Ω_k > 0, the opposite of the black-hole model's closed prediction. | 📥 primary abstract fetched 2026-09-26 (v2); magnitude via secondary |
| R7 | CMB-S4 Revised Project Plan (4 June 2025) https://indico.global/event/14611/contributions/130157/attachments/60314/116145/Revised_CMB_S4_Project_Plan_Report.pdf | Descoped, not cancelled: all-Chile with Simons Observatory and South Pole Observatory; 6 SATs + 1 LAT; first observations as early as 2033; σ(r) ≤ 5e-4; $389M vs $1.14B. | 📥 fetched |
| R8 | The Simons Observatory (A&A 2024 overview; simonsobservatory.org) https://simonsobservatory.org/ | Operating now in Chile; σ(r) ≈ 0.003 target is from memory. | 🔎 / 🧠 search result; sensitivity figure from memory |
| R9 | LiteBIRD (JAXA, selected May 2019); Wikipedia page; PRL 133, 031001 (2024) https://en.wikipedia.org/wiki/LiteBIRD | Launch planned 2032 on an H3 from Tanegashima; target δr < 0.001 (v3 strike: both figures now fetched). | 📥 Wikipedia fetched 2026-09-26 (v3) |
| R10 | NANOGrav 15-year: Search for signals from new physics (arXiv:2306.16219) https://arxiv.org/abs/2306.16219 | Cosmological models (inflation, scalar-induced GWs, phase transitions, domain walls) fit with Bayes factors 10 to 100 over SMBH binaries, but 'should not be regarded as evidence for new physics'. Stable field-theory cosmic strings cannot fit. | 📥 abstract fetched |
| R11 | Campeti & Komatsu 2022 (arXiv:2205.05617) https://arxiv.org/abs/2205.05617 | r < 0.037 (95%) by profile likelihood, prior-independent. | 📥 snippet via search |
| R12 | Tristram et al. 2022, 'Improved limits on r using BICEP and Planck' (arXiv:2112.07961) https://arxiv.org/pdf/2112.07961 | History of the bound: 0.11 (2013) to 0.036 (2021). | 📥 snippet via search |
| R13 | Khoury, Ovrut, Steinhardt, Turok 2001, 'The ekpyrotic universe', PRD 64, 123522 https://arxiv.org/abs/hep-th/0103239 | Two branes collide; the collision is the big bang. | 🧠 not opened this session |
| R14 | Steinhardt & Turok 2002, 'A cyclic model of the universe', Science 296, 1436 https://arxiv.org/abs/hep-th/0111030 | Cycles of trillion-year length; dark energy as the reset phase. | 🧠 not opened |
| R15 | Ijjas & Steinhardt 2019, 'A new kind of cyclic universe', PLB 795, 666 (arXiv:1904.08022) https://arxiv.org/abs/1904.08022 | No crunch, no collision; the Hubble radius contracts while the scale factor always grows; bounce at finite density. | 🔎 / 🧠 existence confirmed by search; content from memory |
| R16 | Ijjas, Pretorius, Steinhardt et al. 2020, 'Robustness of slow contraction to cosmic initial conditions', JCAP https://www.osti.gov/pages/biblio/1800751-robustness-slow-contraction-cosmic-initial-conditions | Numerical relativity: slow contraction smooths highly inhomogeneous, anisotropic starts. | 🔎 / 🧠 existence confirmed; content memory |
| R17 | Cook, Glushchenko, Ijjas, Pretorius, Steinhardt 2020, 'Supersmoothing through slow contraction', PLB https://sciencedirect.com/science/article/pii/S0370269320304937 | Same programme, stronger initial-condition space. | 🔎 title only |
| R18 | Lyth 2002, 'The primordial curvature perturbation in the ekpyrotic universe', PLB 524, 1 https://arxiv.org/abs/hep-ph/0106153 | Single-field ekpyrosis yields a strongly blue spectrum, not the observed near-flat one. | 🧠 not opened |
| R19 | Lehners, McFadden, Turok, Steinhardt 2007, 'Generating ekpyrotic curvature perturbations before the big bang', PRD 76, 103501 https://arxiv.org/abs/hep-th/0702153 | Two-field entropic mechanism rescues the spectrum; predicts f_NL of order tens. | 🧠 not opened |
| R20 | Ijjas, Lehners, Steinhardt 2014, 'General mechanism for producing scale-invariant perturbations and small non-Gaussianity in ekpyrotic models', PRD 89, 123520 https://arxiv.org/abs/1404.1265 | Non-minimal entropic mechanism keeps f_NL small after Planck. | 🧠 not opened |
| R21 | Kallosh, Kofman, Linde 2001, 'Pyrotechnic universe', PRD 64, 123523 https://arxiv.org/abs/hep-th/0104073 | The rebuttal to R13, within weeks: unmotivated potential, singularity, perturbation transfer. | 🧠 not opened |
| R22 | Borde, Guth, Vilenkin 2003, 'Inflationary spacetimes are not past-complete', PRL 90, 151301 (gr-qc/0110012) https://arxiv.org/abs/gr-qc/0110012 | Any spacetime expanding on average has a past boundary. | 🧠 link known; not opened |
| R23 | Pourhasan, Afshordi, Mann 2014, 'Out of the white hole: a holographic origin for the big bang', JCAP 04, 005 (arXiv:1309.1487) https://arxiv.org/abs/1309.1487 | Universe emerges as a spherical 3-brane from the formation of a 5D Schwarzschild black hole in a DGP braneworld; a hot brane atmosphere at 20% of the 5D Planck mass could seed scale-invariant perturbations without inflation. | 📥 abstract via search, 2026-09-26 |
| R24 | Gaztañaga, Kumar et al. 2025, 'Gravitational bounce from the quantum exclusion principle', PRD 111, 103537 (arXiv:2505.23877) https://arxiv.org/abs/2505.23877 | Bounce at R_B = (8πGρ_G/3)^(-1/2); predicts closed curvature −0.07 ± 0.02 ≤ Ω_k < 0 and χ_k ≥ 15.9 Gpc; claims to unify inflation and dark energy; addresses the CMB low quadrupole. | 📥 abstract fetched |
| R25 | Popławski 2016, 'Universe in a black hole in Einstein-Cartan gravity', ApJ 832, 96 (arXiv:1410.3881) https://en.wikipedia.org/wiki/Nikodem_Poplawski | Torsion makes fermions spatially extended and prevents the singularity; matter rebounds through an Einstein-Rosen bridge into a new closed universe; parent black-hole spin gives a preferred direction; inflation without an inflaton. | 📥 (secondary) arXiv PDF returned empty; Wikipedia page fetched |
| R26 | Shamir 2025, 'The distribution of galaxy rotation in JWST Advanced Deep Extragalactic Survey', MNRAS 538, 76 https://academic.oup.com/mnras/article/538/1/76/8019798 | 263 galaxies in JADES GOODS-S: 158 clockwise, 105 counter-clockwise (60%); one-tailed p ≈ 0.0007, ~3.39σ. Author offers cosmological or observational explanations. | 📥 fetched |
| R27 | Patel & Desmond 2024, 'No evidence for anisotropy in galaxy spin directions', MNRAS 534, 1553 https://academic.oup.com/mnras/article/534/2/1553/7762193 | ~340,000 galaxies (SDSS, Pan-STARRS): consistent with isotropy in every set; earlier dipole claims traced to the statistics used. | 📥 fetched |
| R28 | Saadeh, Feeney, Pontzen, Peiris, McEwen 2016, 'How isotropic is the Universe?', PRL 117, 131302 https://arxiv.org/abs/1605.07178v2 | Odds 121,000:1 against anisotropic expansion; vorticity (σ_V/H)_0 < 4.7e-11 at 95%. | 📥 abstract fetched |
| R29 | Smolin 1992, 'Did the universe evolve?', Class. Quantum Grav. 9, 173 https://en.wikipedia.org/wiki/Cosmological_natural_selection | Cosmological natural selection: black holes bear universes; constants mutate; selection for black-hole production. | 🧠 / 📥 original not opened; Wikipedia summary fetched |
| R30 | Brown, Lee, Rho 2008, 'Kaon condensation, black holes and cosmological natural selection', PRL 101, 091101 (arXiv:0802.2997) https://arxiv.org/abs/0802.2997 | CNS predicts M_max ≈ 1.5 solar masses; 'put in serious doubt or simply falsified' by a neutron star above 2 solar masses or a double-NS binary differing by > 4%. | 📥 abstract fetched |
| R31 | Wikipedia, 'Cosmological natural selection' https://en.wikipedia.org/wiki/Cosmological_natural_selection | Prediction 1.6 then 2.0 solar masses; PSR J0740+6620 2.08 ± 0.07 (2019); PSR J0952−0607 2.35 ± 0.17 (2022). | 📥 fetched |
| R32 | Romani et al. 2022, 'PSR J0952−0607: the fastest and heaviest known galactic neutron star', ApJL 934, L17; Wikipedia page https://en.wikipedia.org/wiki/PSR_J0952%E2%88%920607 | 2.35 ± 0.17 solar masses (2022); 2026 refinement 2.35 ± 0.11. | 📥 Wikipedia fetched; ApJL via search |
| R33 | Harrison 1995, 'The natural selection of universes containing intelligent life', QJRAS 36, 193 https://adsabs.harvard.edu/full/1995QJRAS..36..193H | Intelligent life makes successor universes; selection at universe scale. Explicit analogy to directed panspermia is memory; the ADS page refused (robots). | 🔎 / 🧠 secondary: evodevouniverse.com wiki fetched |
| R34 | Crane 1994, 'Possible implications of the quantum theory of gravity' (hep-th/9402104), the meduso-anthropic principle https://evodevouniverse.com/wiki/Cosmological_natural_selection_(fecund_universes) | Civilisations make black holes (for power); black holes make universes; selection favours universes that grow life. | 📥 (secondary) / 🧠 wiki page fetched |
| R35 | Farhi & Guth 1987, 'An obstacle to creating a universe in the laboratory', PLB 183, 149 https://www.sciencedirect.com/science/article/abs/pii/0370269387904291 | A growing false-vacuum bubble must begin at an initial singularity: 'an insurmountable obstacle'; non-spherical loophole: 'we do not know if this condition can ever be met'. | 📥 abstract fetched |
| R36 | Loeb 2021, 'Was our universe created in a laboratory?', Scientific American, 15 Oct 2021 https://www.scientificamerican.com/article/was-our-universe-created-in-a-laboratory/ | A class-A civilisation could tunnel a baby universe out of nothing; no test proposed. | 📥 fetched |
| R37 | Hsu & Zee 2006, 'Message in the sky', MPLA 21, 1495 (physics/0510102) https://arxiv.org/html/physics/0510102v3 | A creator could encode a message in the CMB. | 🔎 / 🧠 search result; content memory |
| R38 | Scott & Zibin 2006, 'The real message in the sky' (physics/0511135) https://arxiv.org/abs/physics/0511135 | CMB coefficients depend on the observer's place and time; observer-independent information is a small fraction; a message would be 'a communication hidden in this morning's tea-leaves'. | 📥 abstract fetched |
| R39 | Feeney, Johnson, Mortlock, Peiris 2011, 'First observational tests of eternal inflation' (arXiv:1012.1995) https://arxiv.org/abs/1012.1995 | WMAP7: fewer than 1.6 detectable bubble collisions on the whole sky at 68%; 'do not warrant augmenting ΛCDM with bubble collisions'. | 📥 abstract fetched |
| R40 | An, Meissner, Nurowski, Penrose 2020, 'Apparent evidence for Hawking points in the CMB sky', MNRAS 495, 3403 (arXiv:1808.01740) https://arxiv.org/abs/1808.01740 | 3 to 4 degree hot spots in Planck 70 GHz and WMAP at the same positions; tested against 10,000 simulations. | 📥 abstract fetched |
| R41 | Jow & Scott 2020, 'Re-evaluating evidence for Hawking points in the CMB', JCAP 03, 021 (arXiv:1909.09672) https://arxiv.org/abs/1909.09672 | After marginalising over ring size, the Planck excess is at 87% confidence: 'no statistically significant evidence'. | 📥 abstract fetched |
| R42 | Beane, Davoudi, Savage 2014, 'Constraints on the universe as a numerical simulation', EPJA 50, 148 (arXiv:1210.1847) https://ar5iv.arxiv.org/html/1210.1847 | A lattice would show in the cosmic-ray cutoff and a rotational-symmetry break; b⁻¹ ≳ 1e11 GeV; no evidence claimed. | 📥 fetched |
| R43 | Vopson 2023, 'The second law of infodynamics and its implications for the simulated universe hypothesis', AIP Advances 13, 105308 https://pubs.aip.org/aip/adv/article/13/10/105308/2915332/ | Claims an information-entropy law supports simulation; not accepted by the field (my assessment). | 🔎 title only |
| R44 | Bostrom 2003, 'Are you living in a computer simulation?', Phil. Quarterly 53, 243 https://www.simulation-argument.com/simulation.pdf | The trilemma. | 🧠 not opened |
| R45 | Weinberg 1987, 'Anthropic bound on the cosmological constant', PRL 59, 2607 https://ui.adsabs.harvard.edu/abs/1987PhRvL..59.2607W | Predicted a small positive Λ from galaxy formation; measured 1998. | 🔎 / 🧠 search result; content memory |
| R46 | Vilenkin 1982 (tunnelling from nothing); Hartle & Hawking 1983 (no-boundary); Feldbrugge, Lehners, Turok 2017 (PRD 95, 103508) critique https://arxiv.org/abs/1703.02076 | Quantum-creation proposals and the instability argument against the no-boundary path integral. | 🧠 not opened |
| R47 | Wikipedia, 'Brane cosmology' https://en.wikipedia.org/wiki/Brane_cosmology | Rubakov & Shaposhnikov 1983; Gogberashvili 1998 to 2000; Randall-Sundrum 1999; ekpyrotic; LHC 2010 black-hole limits; GW170817 limits. | 📥 fetched |
| R48 | Visinelli, Bolis, Vagnozzi 2018, 'Brane-world extra dimensions in light of GW170817', PRD 97, 064039 https://arxiv.org/abs/1711.06628 | Weak limits on the AdS curvature radius from the GW / gamma-ray timing. | 🔎 via Wikipedia citation |
| R49 | Pardo, Fishbach, Holz, Spergel 2018, 'Limits on the number of spacetime dimensions from GW170817', JCAP 07, 048 https://arxiv.org/abs/1801.08160 | D = 4.02 (+0.07 / −0.10) with SH0ES, 3.98 (+0.07 / −0.09) with Planck; screening scale > 20 Mpc. | 📥 abstract fetched |
| R50 | Eöt-Wash group, inverse-square law tests; Lee et al. 2020, PRL https://www.npl.washington.edu/eotwash/inverse-square-law | 1/r² verified down to 52 µm (2020). | 📥 group page fetched |
| R51 | HUST (Wuhan) 2016, 'New test of the gravitational inverse-square law at the submillimeter range with dual modulation and compensation', PRL https://www.researchgate.net/publication/299522319 | Independent apparatus, same conclusion. | 🔎 title only |
| R52 | ATLAS 2021, monojet search at 13 TeV with 139 fb⁻¹ (arXiv:2102.10874) https://arxiv.org/pdf/2102.10874 | M_D below 7.7 TeV (n = 2) and 4.8 TeV (n = 6) already excluded before this analysis; 2021 limits higher. | 📥 fetched |
| R53 | CMS 2011, 'Search for microscopic black hole signatures at the LHC', PLB 697, 434 (arXiv:1012.3375) https://arxiv.org/abs/1012.3375 | No microscopic black holes; constrains large extra dimensions. | 🔎 via Wikipedia citation |
| R54 | LIGO/Virgo/Fermi/INTEGRAL 2017, GW170817 and GRB 170817A, ApJL 848, L13 https://arxiv.org/abs/1710.05834 | Gravity's speed equals light's to about one part in 1e15 (1.7 s over ~130 million light-years). | 🧠 not opened |
| R55 | Kaluza 1921; Klein 1926; Hořava & Witten 1996 (hep-th/9510209) https://arxiv.org/abs/hep-th/9510209 | 5D GR contains Maxwell; the 11th dimension of M-theory is an interval with a boundary brane at each end. | 🧠 not opened |
| R56 | NASA, 'NASA's asteroid Bennu sample reveals mix of life's ingredients', 29 Jan 2025 https://www.nasa.gov/news-release/nasas-asteroid-bennu-sample-reveals-mix-of-lifes-ingredients/ | 14 of 20 protein amino acids; all 5 nucleobases; equal left and right handed amino acids; high ammonia and formaldehyde; 11 evaporite minerals. | 📥 fetched |
| R57 | Glavin, Dworkin et al. 2025, 'Abundant ammonia and nitrogen-rich soluble organic matter in samples from asteroid (101955) Bennu', Nature Astronomy https://www.nature.com/articles/s41550-024-02472-9 | The primary paper behind R56. | 🔎 title via search |
| R58 | Kawaguchi et al. 2020, 'DNA damage and survival time course of deinococcal cell pellets during 3 years of exposure to outer space', Frontiers in Microbiology 11, 2050 (Tanpopo) https://www.frontiersin.org/journals/microbiology/articles/10.3389/fmicb.2020.02050/full | Deinococcus radiodurans pellets survived 3 years on the ISS exterior and repaired their DNA. | 📥 article page via search |
| R59 | Crick & Orgel 1973, 'Directed panspermia', Icarus 19, 341 https://profiles.nlm.nih.gov/spotlight/sc/catalog/nlm:nlmuid-101584582X436-doc | Deliberate seeding by a civilisation; the regress conceded. | 🔎 / 🧠 NLM scan located; not read this session |
| R60 | Ginsburg, Lingam, Loeb 2018, 'Galactic panspermia', ApJL 868, L12 https://iopscience.iop.org/article/10.3847/2041-8213/aaef2d | Capture of life-bearing rocks by other systems; galaxy-wide panspermia possible at low rates. | 🔎 / 🧠 abstract page refused (robots); content memory |
| R61 | Mileikowsky et al. 2000, 'Natural transfer of viable microbes in space: 1. From Mars to Earth and Earth to Mars', Icarus 145, 391 https://www.sciencedirect.com/science/article/abs/pii/S0019103599963170 | Viable transfer to Earth 'not only possible but also highly probable' for B. subtilis and D. radiodurans inside ejecta. | 📥 abstract fetched |
| R62 | Belbruno, Moro-Martín, Malhotra, Savransky 2012, 'Chaotic exchange of solid material between planetary systems', Astrobiology 12, 754 (Princeton release) https://www.princeton.edu/news/2012/09/24/slow-moving-rocks-better-odds-life-crashed-earth-space | 1e14 to 3e16 objects > 10 kg exchanged with the nearest cluster neighbour over 10 to 90 Myr; ~3e8 lithopanspermia events possible; weak transfer viable up to 700 Myr after formation. | 📥 press release fetched |
| R63 | Moody et al. 2024, 'The nature of the last universal common ancestor and its impact on the early Earth system', Nature Ecology & Evolution 8, 1654 https://www.nature.com/articles/s41559-024-02461-1 | LUCA ≈ 4.2 billion years ago; ~2,500 protein-coding genes across 2.5 Mb; an anaerobic acetogen. | 📥 abstract fetched |
| R64 | Earliest-life evidence: Phil. Trans. R. Soc. B 380, 20240106 (2025) review; Bell et al. 2015 PNAS (4.1 Ga zircon carbon); Isua 3.7 Ga stromatolites (disputed) https://royalsocietypublishing.org/rstb/article/380/1931/20240106/235013 | Widely accepted microfossils at ~3.4 to 3.5 Ga; older claims contested. Page refused (403). | 🔎 / 🧠 not read |
| R65 | Powner, Gerland, Sutherland 2009, 'Synthesis of activated pyrimidine ribonucleotides in prebiotically plausible conditions', Nature 459, 239; Pearce et al. 2017 PNAS (warm little ponds) https://www.pnas.org/doi/10.1073/pnas.1710339114 | Prebiotic nucleotide route; pond wet-dry cycles for RNA. | 🔎 / 🧠 Pearce via search; Sutherland memory |
| R66 | Benner 2013, Goldschmidt conference, the Mars-first (boron, molybdenum) argument https://www.nbcnews.com/science/we-are-all-martians-chemists-otherworldly-claim-stirs-debate-8c11026339 | Early Mars had oxidised molybdenum and boron that RNA chemistry wants; early Earth may not have. | 🔎 press coverage only |
| R67 | NASA JPL, 'NASA says Mars rover discovered potential biosignature last year', 10 Sept 2025; Hurowitz et al., Nature https://www.jpl.nasa.gov/news/nasa-says-mars-rover-discovered-potential-biosignature-last-year/ | Cheyava Falls rock, Sapphire Canyon sample: vivianite and greigite 'leopard spots' from electron-transfer reactions with organic matter; abiotic routes need heat or acid, absent here; low-temperature abiotic catalysis 'uncertain'. | 📥 fetched |
| R68 | Live Science, 'NASA's Mars Sample Return is dead', 16 Jan 2026 https://www.livescience.com/space/mars/nasas-mars-sample-return-is-dead-leaving-china-to-retrieve-signs-of-life-from-the-red-planet | Senate spending bill of 15 Jan 2026 'does not support the existing MSR program'; IRB estimate up to $11B with samples not before 2040; Tianwen-3 launch 2028, return 2031, less promising site. | 📥 fetched |
| R69 | Luque et al. 2025, 'Insufficient evidence for DMS and DMDS in the atmosphere of K2-18 b', A&A 700, A??; Madhusudhan et al. 2025 ApJL (the 3σ claim) https://www.aanda.org/articles/aa/full_html/2025/08/aa55580-25/aa55580-25.html | Joint NIRISS + NIRSpec + MIRI, multiple pipelines, two retrieval codes: insufficient evidence; the earlier 3σ came from mid-IR alone with limited molecule lists. | 📥 rebuttal fetched; the claim paper is memory |
| R70 | Postberg et al. 2023, 'Detection of phosphates originating from Enceladus's ocean', Nature 618, 489; and 2025 Nature Astronomy 'Detection of organic compounds in freshly ejected ice grains from Enceladus's ocean' (1 Oct 2025) https://www.nature.com/articles/s41550-025-02655-y | Phosphates in plume grains (2023); esters, ethers, aliphatic, (hetero)cyclic and tentatively N/O-bearing organics in fresh grains from the 18 km/s E5 flyby (2025). | 📥 2025 abstract fetched; 2023 via search |
| R71 | Wikipedia, 'Europa Clipper' https://en.wikipedia.org/wiki/Europa_Clipper | Launched 14 Oct 2024; Earth flyby 3 Dec 2026; Jupiter orbit insertion April 2030; first Europa flyby March 2031; goals are habitability, not life detection. | 📥 fetched |
| R72 | NASA Science, Dragonfly mission page https://science.nasa.gov/mission/dragonfly/ | Launch NET July 2028; Titan arrival late 2034; 'not a mission to detect life' but to investigate prebiotic chemistry and habitability. | 📥 fetched |
| R73 | ESA, Comet Interceptor; Wikipedia page (ESA and SpaceNews pages refused) https://en.wikipedia.org/wiki/Comet_Interceptor | Launch window August 2028 to July 2029, sharing the rocket with ARIEL; waits at L2 up to three years for a target; an interstellar object is a possible target 'if the speed and direction permit'; SpaceNews Jan 2026 reported the launch moved earlier (v3 strike). | 📥 Wikipedia fetched 2026-09-26 (v3) |
| R74 | 'High nitrogen and carbon isotopic ratios in the interstellar comet 3I/ATLAS', Nature Astronomy, July 2026 https://www.nature.com/articles/s41550-026-02921-7 | 12C/13C = 151 (−44 / +110); 14N/15N = 363 (−153 / +633); consistent with an outer disk around an older low-metallicity star. | 📥 abstract fetched |
| R75 | Sharov & Gordon 2013, 'Life before Earth' (arXiv:1304.3381); Marzban, Viswanathan, Seshadri 2014, 'Earth before life', Biology Direct 9, 1 https://arxiv.org/abs/1304.3381v1 | Extrapolation of genome complexity to 9.7 Gya; the 2014 reply shows the extrapolation is unjustified (PubMed page returned a captcha). | 🔎 / 🧠 not read |
| R76 | shCherbak & Makukov 2013, 'The Wow! signal of the terrestrial genetic code', Icarus 224, 228; critiques (Novozhilov 2013 and others) https://www.sciencedirect.com/science/article/abs/pii/S0019103513000791 | Claimed arithmetic patterns in the code as a signature of design; not accepted. | 🔎 / 🧠 not read |
| R77 | Arrhenius 1903 (radiopanspermia); Wesson 2010 (necropanspermia) https://en.wikipedia.org/wiki/Panspermia | Historical variants: UV kills bare spores; dead cells might still carry information. | 🧠 not opened |
| R78 | Oba et al. 2023, 'Uracil in the carbonaceous asteroid (162173) Ryugu', Nature Communications 14, 1292 https://www.nature.com/articles/s41467-023-36904-3 | Uracil and niacin in the Ryugu sample. | 🧠 not opened |
| R79 | Adams & Spergel 2005, 'Lithopanspermia in star-forming clusters', Astrobiology 5, 497 https://www.researchgate.net/publication/7680896_Lithopanspermia_in_Star-Forming_Clusters | Transfer probabilities in the Sun's birth cluster. | 🔎 title only |
| R80 | Tolman 1934, 'Relativity, thermodynamics and cosmology' https://en.wikipedia.org/wiki/Cyclic_model | Entropy makes each cycle longer; the objection the cyclic model answers with growing volume. | 🧠 not opened |
| R81 | Pacucci, 'Could we steal the power of a black hole?', TED-Ed, October 2020 (transcript attached this session) https://www.ted.com/talks/fabio_pacucci_could_we_steal_the_power_of_a_black_hole | 385 YW Sun; Type III = 1e11 suns; 6% and 32% accretion efficiencies; 0.08% fission; 'several Earths of hematite'. | 📥 transcript read whole |
| R82 | Tyson, StarTalk 'What's up with that: are we inside a black hole?' (transcript attached; mid-2025 from the ad in it) https://www.youtube.com/watch?v=vKeCr-MAyH4 | Horizon-size coincidence; 'two thirds' of galaxies spin opposite; mass and spin only. YouTube page refused (429). | 📥 (transcript) / 🔎 (page) transcript read whole |
| R83 | Novikov-Thorne efficiencies (Bardeen, Press, Teukolsky 1972 formula), computed this session no URL (memory or computed) | Spin 0: 5.7%; spin 0.998: 32.1%; spin 1: 42.3%. U-235 fission: 0.087 to 0.091%. Sun: 382.8 YW (IAU 2015). | ▶️ python, 2026-09-26 |
| R84 | Kardashev 1964, 'Transmission of information by extraterrestrial civilizations', Soviet Astronomy 8, 217 https://adsabs.harvard.edu/full/1964SvA.....8..217K | Type II 4e26 W; Type III 4e37 W; ratio 1e11. | 🧠 not opened |
| R85 | Hubble-sphere identity and radiator mass, computed this session no URL (memory or computed) | r_s(mass inside c/H0) / (c/H0) = 1.000000 for a flat universe; with the 46.5 Gly particle horizon the ratio is 10.3. A Type III collector needs 7.0e31 m² at 1500 K (117,000 Earths at 10 g/m²) or 4.4e30 m² at 3000 K (7,300 Earths). | ▶️ python, 2026-09-26 |
| R86 | Balkenhol, Camphuis, Finelli et al., 'Inflation at the end of 2025: constraints on r and n_s using the latest CMB and BAO data' (arXiv:2512.10613; submitted 11 Dec 2025, revised 29 Jun 2026) https://arxiv.org/abs/2512.10613 | r < 0.034 at 95%; n_s = 0.9682 ± 0.0032 (CMB alone), 0.9728 ± 0.0029 (CMB + DESI BAO); the higher n_s favours monomial potentials over Starobinsky R² and Higgs inflation. | 📥 abstract fetched 2026-09-26 (v2) |
| R87 | Simons Observatory collaboration, 'Forecasted constraints on primordial gravitational waves with the expanded array of Small Aperture Telescopes', JCAP 04 (2026) 051 (arXiv:2512.15833) https://arxiv.org/abs/2512.15833 | Still a forecast as of Dec 2025: no Simons Observatory r measurement has been published. The 'incoming' row stands. | 🔎 title and venue via search (v2); abstract not opened |
| R89 | LPI, 'Spectral behavior of hematite at visible/near infrared and mid-infrared' (5th Mars conference abstract 6085) https://www.lpi.usra.edu/meetings/5thMars99/pdf/6085.pdf | Fine-grained red hematite: deep absorption across the visible (0.52 to 0.70 µm); coarse grey hematite: flat visible spectrum; nanophase hematite: 'very dark purple (nearly black)'. No absolute reflectance percentages given. Enough to say the TED-Ed 'highly reflective material like hematite' is wrong for red hematite and unsupported for grey (v3 strike). | 📥 fetched 2026-09-26 (v3) |
| R90 | 'Crunching, bouncing, and cyclical cosmologies from dark sector interactions' (arXiv:2603.02332, March 2026) https://arxiv.org/abs/2603.02332 | Strong dark-matter/dark-energy interactions can produce a crunch or a bounce, but 'these strong interaction scenarios are unlikely to describe the observed Universe'. No paper found that connects DESI's w0wa preference to the Ijjas-Steinhardt reset phase; the parked question stays open with this receipt. | 📥 abstract fetched 2026-09-26 (v3) |
| R91 | Harrison 1995 and Popławski 2016 primaries: routes tried in v3 no URL (memory or computed) | ADS full-text, ADS abstract, Springer chapter (Vaas 2019, cites Harrison without detail), arXiv abs, export.arxiv, Semantic Scholar: all refused or empty. Both stay parked; the attributions on rows A3, B3 and B6 remain secondary-sourced and say so. | 🔎 four routes each, 2026-09-26 |
| R88 | dataviz palette validator (skill script), run on the board's colours no URL (memory or computed) | v1 palette FAILED: ✅ Probable green #059669 vs ▶️ Established green #10b981 at ΔE 10.2, below the 15 normal-vision floor. v2 replaces the four evidence bins with one blue ramp: dark #3b5998 → #4a78d0 → #618FEC → #93b4f4, light #8fb0f2 → #618FEC → #2f6ee0 → #1b3f9e; both pass every ordinal check. Red and amber pass as the status pair (ΔE 24.1). Grey #4a5568 fails the chroma floor by design: it is the neutral for 🚫, not a hue. | ▶️ node validate_palette.js, 2026-09-26 (v2) |
| # | Source | What it says (the number) | Tier · note |
|---|---|---|---|
| L1 | BioNumbers entry 117182, citing Fernald 2006 Science and Salvini-Plawen & Mayr 1977, Evol. Biol. 10, 207 https://bionumbers.hms.harvard.edu/bionumber.aspx?id=117182 | Eyes evolved independently 40 or more times. | 📥 fetched 2026-09-26 |
| L2 | Wikipedia, 'Cephalopod eye' https://en.wikipedia.org/wiki/Cephalopod_eye | Cephalopod and vertebrate camera eyes arose independently: different lens crystallins, five cephalopod-only Pax6 variants. | 📥 fetched |
| L3 | Blount, Lenski, Losos 2018, 'Contingency and determinism in evolution: replaying life's tape', Science 362, eaam5979 https://bpb-us-e2.wpmucdn.com/sites.wustl.edu/dist/6/1127/files/2018/12/Blount-et-al.-2018-1mxt4b5.pdf | Repeatable outcomes common among close relatives; 'disparate outcomes become more likely as the footprint of history grows deeper'; convergence 'more common than most biologists would have wagered'; rejects both pure contingency and pure determinism. | 📥 author PDF fetched |
| L4 | Roth 2015, 'Convergent evolution of complex brains and high intelligence', Phil. Trans. R. Soc. B 370, 20150049 https://royalsocietypublishing.org/doi/abs/10.1098/rstb.2015.0049 | Independent origins of complex brains in cephalopods, birds and mammals. | 🔎 / 🧠 page refused (403); content from memory |
| L5 | Mills, Krissansen-Totton, Catling, Kirschvink 2025, 'A reassessment of the hard-steps model for the evolution of intelligent life', Science Advances (arXiv:2408.10293) https://arxiv.org/abs/2408.10293 | 'There are no hard steps'; humans evolved 'on time' as global habitability windows opened in sequence; technological life may be less rare than the hard-steps model implies. | 📥 abstract fetched |
| L6 | Blount, Borland, Lenski 2008 PNAS 105, 7899, via Blount et al. 2018 PLOS Genetics 14, e1007348 (introduction) https://journals.plos.org/plosgenetics/article?id=10.1371%2Fjournal.pgen.1007348 | Twelve populations; Cit+ arose in one (Ara−3) after 31,500 generations and in no other after 30 years; replays from frozen ancestors before generation 20,000 never evolved it, showing potentiating mutations and historical contingency. | 📥 PLOS page fetched |
| L7 | Physics World, 'My favourite Nobel prize: a universal theory for phase transitions' (Wilson, Nobel 1982) https://physicsworld.com/a/my-favourite-nobel-prize-a-universal-theory-for-phase-transitions/ | Near a critical point only the dimensionality of the system and of the order parameter matter; liquids and magnets share critical exponents. | 📥 fetched; Nobel lecture PDF located via search |
| L8 | Vazza & Feletti 2020, 'The quantitative comparison between the neuronal network and the cosmic web', Frontiers in Physics 8, 525731 https://public-pages-files-2025.frontiersin.org/journals/physics/articles/10.3389/fphy.2020.525731/text | 'A tantalizing degree of similarity'; neural analysis used 'an approximation based on simple proximity'; 'radically different scales and processes at play'. | 📥 fetched |
| L9 | Broido & Clauset 2019, 'Scale-free networks are rare', Nature Communications 10, 1017 https://www.nature.com/articles/s41467-019-08746-5 | Nearly 1,000 networks: 4% strongest evidence, 10% strong, 29% weakest; 'far less common than suggested by the literature'. | 📥 abstract fetched |
| L10 | Scrimgeour et al. 2012, 'The WiggleZ Dark Energy Survey: the transition to large-scale cosmic homogeneity', MNRAS 425, 116 https://academic.oup.com/mnras/article/425/1/116/996621 | Homogeneity above 71 ± 8 h⁻¹ Mpc; N(<r) ∝ r³ within 1%; fractal dimension below 2.97 excluded at 99.99% from 80 h⁻¹ Mpc up. | 📥 abstract fetched |
| L11 | Wikipedia, 'Zeldovich pancake' https://en.wikipedia.org/wiki/Zeldovich_pancake | Anisotropic collapse of slightly overdense regions into sheets, then filaments, then nodes: the origin of the cosmic web. | 🔎 / 🧠 page located; content stable textbook |
| L12 | Standard ΛCDM N-body results (Millennium, IllustrisTNG) reproducing the observed web https://en.wikipedia.org/wiki/Observable_universe#Large-scale_structure | Every simulation with gravity and Gaussian initial ripples forms the web. | 🧠 stable |
| L13 | Spectrum receipts R56 (Bennu), R70 (Enceladus), R71 (Europa Clipper), R72 (Dragonfly), R63 (LUCA) a private page | See the Origin Spectrum, §References. | 📥 cross-reference |
| L14 | Lane 2017, 'Proton gradients at the origin of life', BioEssays 39, 1600217; Sojo, Herschy, Whicher, Camprubí, Lane 2016, 'The origin of life in alkaline hydrothermal vents', Astrobiology 16, 181 https://nick-lane.net/publications/origin-life-alkaline-hydrothermal-vents-2/ | Natural proton gradients across mineral membranes as the energy source life still uses; life as an outcome of vent geochemistry. | 🔎 / 🧠 pages located; content from memory |
| L15 | 'Rethinking the origin of life at seafloor hydrothermal vents', PNAS 2026 (doi 10.1073/pnas.2613108123) https://www.pnas.org/doi/abs/10.1073/pnas.2613108123 | Title only; the page refused (403). Recorded so the next hands open it: it may challenge L14. | 🔎 not read |
| L16 | Moody et al. 2024, LUCA at ~4.2 Gya (Spectrum R63) https://www.nature.com/articles/s41559-024-02461-1 | Life within ~350 million years of Earth's formation. | 📥 fetched earlier this session |
| L17 | England 2013, 'Statistical physics of self-replication', J. Chem. Phys. 139, 121923; and the 'dissipation-driven adaptation' programme https://www.nature.com/articles/nnano.2015.273 | Driven systems can evolve toward greater dissipation; suggestive for the origin of life, not demonstrated. | 🧠 / 🔎 Nature Nanotechnology commentary located |
| L18 | Sharma, Czégel, Lachmann, Kempes, Walker, Cronin 2023, 'Assembly theory explains and quantifies selection and evolution', Nature 622, 321; critiques 2024 (e.g. J. Mol. Evol. 2024) https://link.springer.com/article/10.1007/s00239-024-10163-2 | A proposed measure of selection in molecules; critics argue it restates existing complexity measures. | 🔎 located, not read |
| L19 | Bohr 1913 model superseded by Heisenberg 1925, Schrödinger 1926; log spirals from constant-angle growth (Thompson 1917, 'On Growth and Form') https://en.wikipedia.org/wiki/Bohr_model | Electrons have no orbits; spirals in galaxies, storms and shells arise from different mechanisms sharing one growth rule. | 🧠 stable textbook |
| L20 | West, Brown, Enquist 1997, 'A general model for the origin of allometric scaling laws in biology', Science 276, 122; and the 'Demystifying' critique (Funct. Ecol. 2006) https://besjournals.onlinelibrary.wiley.com/doi/10.1111/j.1365-2435.2006.01136.x | Metabolic rate ∝ mass^3/4 from fractal supply networks; exponent and derivation contested, scaling itself measured across 20 orders of magnitude. | 🔎 / 🧠 located; not read |
| L21 | Vanchurin 2020, 'The world as a neural network', Entropy 22, 1210 https://doi.org/10.3390/e22111210 | Proposes physics emerges from a learning network; no distinguishing prediction offered. | 🔎 located; not read |
| L22 | Tegmark 2009, 'The multiverse hierarchy' (arXiv:0905.1283) https://arxiv.org/abs/0905.1283 | Levels I to IV defined; Level I is 'mainstream cosmological consensus'; a 'severe measure problem' must be solved for testable predictions at Levels II to IV. | 📥 abstract fetched |
| L23 | Vardanyan, Trotta, Silk 2011, 'Applications of Bayesian model averaging to the curvature and size of the Universe', MNRAS Letters (arXiv:1101.5476) https://arxiv.org/abs/1101.5476v1 | Curvature radius R_c > 42 Gpc (99%); at least N_U > 251 Hubble spheres (99%). | 📥 abstract fetched |
| L24 | Feeney, Johnson, Mortlock, Peiris 2011 (Spectrum R39): bubble collisions < 1.6 on the sky at 68% https://arxiv.org/abs/1012.1995 | No evidence for Level II collisions. | 📥 fetched earlier this session |
| L25 | Marvel Database and DC Database, 'Omniverse' https://marvel.fandom.com/wiki/Omniverse | The term's home: the collection of a publisher's fictional multiverses. No physics definition. | 🔎 located |
| L26 | Origin Spectrum rows A3, B3 and receipts R24, R6, R27, R28 a private page | The black-hole-universe family and the curvature and spin data against it. | 📥 cross-reference |
| L28 | Physics Today, 'Chaos at fifty' (Lorenz 1963 and Poincaré's three-body result) https://physicstoday.aip.org/features/chaos-at-fifty | Poincaré: small differences in initial conditions produce very great ones; prediction becomes impossible. Lorenz: sensitive dependence, and a bounded fractal attractor of dimension about 2.06 that all trajectories fall onto. | 📥 fetched 2026-09-27 |
| L29 | Laskar & Gastineau 2009, 'Existence of collisional trajectories of Mercury, Mars and Venus with the Earth', Nature 459, 817 https://www.nature.com/articles/nature08096 | 2,501 orbits over 5 Gyr from within present measurement errors; about 1% give Mercury a large eccentricity; one run destabilises all the terrestrial planets ~3.34 Gyr from now. The ~5 Myr Lyapunov time is memory (the Lettera Matematica page was rate-limited). | 📥 / 🧠 abstract fetched 2026-09-27 |
| L30 | Hensen et al. 2015, 'Loophole-free Bell inequality violation using electron spins separated by 1.3 kilometres', Nature 526, 682 https://www.nature.com/articles/nature15759 | S = 2.42 ± 0.20 (limit 2); P ≤ 0.039 for any local-realist model. Giustina et al. and Shalm et al. 2015 (PRL 115, 250401 and 250402) are the photon tests at high significance, from memory. | 📥 / 🧠 abstract fetched 2026-09-27 |
| L31 | Anderson 1972, 'More is different', Science 177, 393 https://www.science.org/doi/10.1126/science.177.4047.393 | The reductionist hypothesis does not imply a constructionist one; new laws at each level of complexity. | 🧠 stable; not opened this session |
| L27 | Wikipedia, 'LiteBIRD' https://en.wikipedia.org/wiki/LiteBIRD | Launch planned 2032 on an H3 from Tanegashima; target δr < 0.001; selected by JAXA May 2019. | 📥 fetched 2026-09-26 (this resolves a Spectrum parked item) |
| # | Source | What it says (the number) | Tier · note |
|---|---|---|---|
| B1 | Wikipedia, 'Arch Mission Foundation' (Lunar Library on Beresheet, 2019) https://en.wikipedia.org/wiki/Arch_Mission_Foundation | 25 nickel layers, ~30 million pages, primers, DNA-encoded books, human DNA, undisclosed tardigrades; lander crashed May 2019, library likely intact. | 📥 fetched 2026-09-27 |
| B2 | Lunar Codex (archives on commercial landers, 2024 onward); Arch Mission Lunar Library II on Peregrine (2024, lost) https://www.lunarcodex.com/spacecraft | Art archives on Odysseus (landed Feb 2024); Peregrine burned up before reaching the Moon. | 🔎 / 🧠 sites located; details from memory |
| B3 | Davies & Wagner 2013, 'Searching for alien artifacts on the Moon', Acta Astronautica 89, 261 (via phys.org 2011) https://phys.org/news/2011-12-asu-cosmologist-moon-alien-artifacts.html | Proposes crowdsourced and algorithmic searches of LRO imagery at 0.5 m; nothing weathers on the Moon. No completed survey found. | 📥 (secondary) ADS page refused |
| B4 | Wikipedia, 'Hollow Moon' https://en.wikipedia.org/wiki/Hollow_Moon | Moment of inertia 0.39 (hollow shell 0.67); crust ~45 km, core ~330 km; density 3.3; the ringing is dry fractured rock. | 📥 fetched |
| B5 | NASA Science, 'Moon formation'; Apollo sample ages and oxygen isotopes https://science.nasa.gov/moon/formation/ | Giant impact; isotopes match Earth; small core. | 🧠 / 🔎 stable textbook; page located |
| B6 | Wikipedia, 'KREEP'; Lunar Prospector and Kaguya thorium/uranium maps https://en.wikipedia.org/wiki/KREEP | KREEP as the magma-ocean residue enriched in K, REE, P, Th and U. The ppm figures (~10 ppm Th, ~2 ppm U) are memory; the Kaguya paper refused. | 📥 / 🧠 formation fetched; numbers memory |
| B7 | Astronomy.com, 'Why NASA is targeting the Moon's south pole'; Wikipedia, 'Chang'e 7' https://en.wikipedia.org/wiki/Chang%27e_7 | LCROSS 2009: ~100 kg water vapour from Cabeus; PSR regolith up to ~20% ice; Malapert lit 98%; Chang'e-7 launch August 2026 to Shackleton ridge with a hopper. | 📥 fetched |
| B8 | National Geographic, 'Earth's oldest rock found on the Moon?' (Bellucci et al. 2019) https://www.nationalgeographic.com/science/article/earths-oldest-rock-found-on-moon-get-facts-apollo-14-zircons | Apollo 14 sample 14321, clast 4.011 Gyr, zircons 'dead in the middle of the terrestrial field'. | 📥 fetched |
| B9 | 'Trace element and textural evidence favoring lunar, not terrestrial, origin of the mini-granite in Apollo sample 14321', Icarus 2020 https://www.sciencedirect.com/science/article/abs/pii/S0019103520301585 | The rebuttal. | 🔎 title only |
| B10 | Siegler et al. 2023, 'Remote detection of a lunar granitic batholith at Compton-Belkovich', Nature https://www.nature.com/articles/s41586-023-06183-5 | ~50 km body; heat flux ~180 mW/m², 20× highlands; water and plate tectonics absent on the Moon. | 📥 abstract fetched 2026-09-27 |
| B11 | Carrer et al. 2024, 'Radar evidence of an accessible cave conduit on the Moon below the Mare Tranquillitatis pit', Nature Astronomy https://www.nature.com/articles/s41550-024-02302-y | Mini-RF reflections attributable to a subsurface conduit, tens of metres long, 30 to 55 m wide in the models tested. | 📥 abstract fetched |
| B12 | Wikipedia, 'Artemis III' https://en.wikipedia.org/wiki/Artemis_III | Redesignated 27 Feb 2026 as a crewed LEO demonstration, late 2027; Artemis IV early 2028 is now the first landing. | 📥 fetched 2026-09-27 |
| B13 | University of Arizona 'lunar ark' concept (Thanga, 2021); LifeShip https://spectrum.ieee.org/tech-talk/aerospace/space-flight/this-startup-wants-to-stash-your-dna-on-the-surface-of-the-moon | Lava-tube vault proposal; DNA capsules sold for commercial landers. | 🔎 / 🧠 located; not read |
| B14 | Antarctic and Southern Ocean Coalition, 'The Antarctic Treaty: what happens in 2048?' https://www.asoc.org/ice-archive/the-antarctic-treaty-what-happens-in-2048/ | No expiry; review conference possible; lifting the ban needs a replacement regime, consensus and three-quarters ratification. | 📥 fetched |
| # | Source | What it says (the number) | Tier · note |
|---|---|---|---|
| S1 | BAS press release, 22 Oct 2025: Hidden giant granite discovered beneath West Antarctic Ice Sheet https://www.bas.ac.uk/news/hidden-giant-granite-discovered-beneath-west-antarctic-ice-sheet/ | Buried granite under Pine Island Glacier, almost 100 km across and 7 km thick; dated about 175 Ma (Jurassic) from zircon; found via airborne gravity | 📥 fetched Justin's link; the 'timing' row |
| S2 | Jordan et al. 2025, Communications Earth & Environment: Subglacial geology and palaeo flow of Pine Island Glacier https://www.nature.com/articles/s43247-025-02783-3 | 12 erratics, 10 dated by U-Pb zircon (LA-ICP-MS); ages 179 to 171 Ma; a low-density body up to ~8 km thick; 'a major thermal anomaly associated with the breakup of Gondwana'; no heat-flow statement | 📥 fetched Primary for S1/the granite timing |
| S3 | Siegler et al. 2023, Nature: Remote detection of a lunar granitic batholith at Compton-Belkovich https://www.nature.com/articles/s41586-023-06183-5 | About 50 km diameter granitic system; peak heat flux about 180 mW/m², about 20 times the highland average; Chang'e-1 and 2 microwave radiometers (3 to 37 GHz); Lunar Prospector thorium; 69.7 ppm Th in the model | 📥 fetched Primary for S6 |
| S4 | Jolliff et al. 2011, Nature Geoscience: Non-mare silicic volcanism on the lunar far side at Compton-Belkovich no URL (memory or computed) | LROC images: silicic domes 0.5 to 6 km, collapse features, high albedo, ~25 by 35 km complex | 🧠 memory Not fetched; the age (~3.5 Gya by crater counts) is memory and flagged |
| S5 | Cui et al. 2024, Science: A sample of the Moon's far side retrieved by Chang'e-6 contains 2.83-billion-year-old basalt https://www.science.org/doi/10.1126/science.adt1093 | First far-side samples (1,935 g), basalt dated 2.83 Gyr, South Pole-Aitken basin | 🔎 search The only far-side rock in hand |
| S6 | Project Hephaistos IV: JWST observations of two Dyson sphere candidates (2026) https://arxiv.org/html/2607.09460 | Candidates D and E: background galaxies within ~1 arcsec (a Hot DOG at z≈0.9; a dusty starburst at z≈0.4). 'The infrared excess does not originate from Dysonian megastructures' | 📥 fetched For S7 (finished mines elsewhere) |
| S7 | Archival diagnostics for background contaminants of Project Hephaistos candidates (2026) https://arxiv.org/html/2607.03619v1 | B and C clearly contaminated; A suggestive; E, F, H, J marginal; D and I lacked obvious signs (D since resolved by JWST); surface density of hot dust-obscured galaxies could explain all seven as chance alignments | 📥 fetched |
| S8 | Wikipedia: Malmstrom UFO incident (citing the 1967 Air Force report and a June 2025 Wall Street Journal report) https://en.wikipedia.org/wiki/Malmstrom_UFO_incident | Echo Flight, 16 Mar 1967: ten missiles no-go; Air Force: commercial power failure, UFO rumours 'disproven'; 2025: Pentagon attributes it to a classified EMP test; Oscar Flight: a sighting, no missiles offline (Sheaffer) | 📥 fetched (secondary) The primary AARO page fetched did not contain the case; Volume II pending |
| S9 | India TV summary of the WSJ report, 9 Jun 2025 https://www.indiatvnews.com/news/world/us-military-misled-public-on-ufos-for-decades-to-hide-secret-defence-projects-cold-war-weapon-tests-says-report-2025-06-09-993923 | 'Part of an unsuccessful electromagnetic pulse (EMP) test'; investigated by AARO under Kirkpatrick; no document cited | 📥 fetched (secondary) WSJ itself is paywalled |
| S10 | American Forces Press Service, 27 Oct 2010: F.E. Warren missile communications outage https://www.globalsecurity.org/wmd/library/news/usa/2010/usa-101027-afps01.htm | 23 Oct 2010; 50 Minuteman III lost contact for nearly 45 minutes; a launch control centre 'trying to communicate in the wrong time slot' | 📥 fetched Base rate for S9 |
| S11 | AARO Historical Record Report Volume 1 (2024), p. 30 via Wikisource https://en.wikisource.org/wiki/Page:AARO_Historical_Record_Report_Volume_1_2024.pdf/30 | AARO interviewed five former USAF members from ICBM bases 1966 to 1977; unresolved allegations deferred to Volume II | 📥 fetched Partial |
| S12 | Zanella et al. 2019, Science Advances: BAZ1B as a major human gene patterning the modern human face and underlying self-domestication https://www.science.org/doi/10.1126/sciadv.aaw7908 | Neural-crest gene dosage shapes the modern face; regulatory changes in modern humans vs archaics | 🔎 search |
| S13 | Cieri et al. 2014, Current Anthropology: Craniofacial feminization, social tolerance, and the origins of behavioral modernity no URL (memory or computed) | Brow-ridge and facial reduction over the last 80,000 years read as reduced reactive aggression | 🧠 memory |
| S14 | Hare, Wobber, Wrangham 2012, Animal Behaviour: The self-domestication hypothesis (bonobos) https://evolutionaryanthropology.duke.edu/sites/evolutionaryanthropology.duke.edu/files/site-images/hare-et-al-2012-self-domestication.original.pdf | Bonobo psychology and morphology as selection against aggression with no breeder | 🔎 search The no-hands control |
| S15 | Eisner 2003, Crime and Justice 30: Long-term historical trends in violent crime https://www.journals.uchicago.edu/doi/abs/10.1086/652229 | European homicide from about 20 to 40 per 100,000 in the late Middle Ages to about 1 by the 20th century | 🔎 search |
| S16 | Roelfs, Shor, Davidson, Schwartz 2011, Social Science & Medicine: Losing life and livelihood https://pubmed.ncbi.nlm.nih.gov/21330027 | Meta-analysis: unemployment associated with about 63% higher all-cause mortality | 🔎 search The collie's neurosis, in us |
| S17 | Hare, Brown, Williamson, Tomasello 2002, Science: The domestication of social cognition in dogs https://www.eva.mpg.de/documents/AAAS/Hare_Domestication_Science_2002_1555973.pdf | Dogs, including puppies, use human pointing; wolves in that study did not | 🔎 search |
| S18 | Udell, Dorey, Wynne 2008, Animal Behaviour: Wolves outperform dogs in following human social cues https://www.sciencedirect.com/science/article/abs/pii/S0003347208003631 | Human-reared wolves use momentary distal pointing without training; 'domestication is not a prerequisite for human-like social cognition in canids' | 📥 fetched Corrects the author's 'wolves never learn it' |
| S19 | Cooperative eye hypothesis (Kobayashi & Kohshima 2001; Tomasello 2007) and its critics (Caspar et al. 2021; Perea-García et al. 2025, Biological Reviews) https://en.wikipedia.org/wiki/Cooperative_eye_hypothesis | White sclera as a gaze signal; 2021 study finds ape pigmentation patterns do not fit the communicative story; 2025 review says look past the hypothesis | 📥 fetched (summary); the 2025 review refused (403) Weakens S12's sclera line |
| S20 | Snyder-Beattie, Sandberg, Drexler, Bonsall 2021, Astrobiology: The timing of evolutionary transitions suggests intelligent life is rare https://journals.sagepub.com/doi/full/10.1089/ast.2019.2149 | Hard-steps fit to Earth's transition timings implies rarity | 🔎 search Paired with Mills 2025 on the Lawful board |
| S21 | Toups, Kitchen, Light, Reed 2011, Molecular Biology and Evolution: Origin of clothing lice https://academic.oup.com/mbe/article/28/1/29/984822 | Clothing lice diverged 83,000 to 170,000 years ago, dating clothing use | 🔎 search Fur/clothes row |
| S22 | Schultz et al. 2024, Science: The coevolution of fungus-ant agriculture (Smithsonian release) https://www.si.edu/newsdesk/releases/ant-agriculture-began-66-million-years-ago-aftermath-asteroid-doomed-dinosaurs | Ant agriculture began 66 Mya in the aftermath of Chicxulub; 475 fungal and 276 ant species sampled; 'higher' agriculture about 27 Mya | 📥 fetched Corrects the author's 55 Mya |
| S23 | Rogers, Iltis, Wooding 2004, Current Anthropology: Genetic variation at the MC1R locus and the time since loss of human body hair https://www.journals.uchicago.edu/doi/abs/10.1086/381006 | Dark skin, hence bare skin, by about 1.2 Mya | 🔎 search |
| S24 | Albertin et al. 2015, Nature: The octopus genome (via Science news) https://www.science.org/content/article/octopus-genome-surprises-and-teases | About 33,000 genes; expanded protocadherin and zinc-finger families; nested with molluscs | 🔎 search |
| S25 | Steele et al. 2018, Progress in Biophysics and Molecular Biology: Cause of Cambrian explosion, terrestrial or cosmic? https://www.sciencedirect.com/science/article/pii/S0079610718300798 | Proposes octopus eggs arrived from space; published commentary rebuts | 🔎 search The source of 'alien octopus' |
| S26 | Snopes fact check: Does octopus DNA come from space? https://www.snopes.com/fact-check/octopus-dna-origins/ | Rated false; genome nested in molluscs | 🔎 search |
| S27 | Bramble & Lieberman 2004, Nature: Endurance running and the evolution of Homo https://www.nature.com/articles/nature03052 | Running adaptations including sweating and hair loss, about 2 Mya | 🔎 search |
| S28 | MacLarnon & Hewitt 1999, American Journal of Physical Anthropology: The evolution of human speech, the role of enhanced breathing control https://onlinelibrary.wiley.com/doi/10.1002/(SICI)1096-8644(199907)109:3%3C341::AID-AJPA5%3E3.0.CO;2-2 | Thoracic vertebral canal enlargement, hence breathing control, appears in later Homo | 🔎 search |
| S29 | Sakai et al. 2024, PNAS: AI-accelerated Nazca survey nearly doubles the number of known figurative geoglyphs https://www.pnas.org/doi/10.1073/pnas.2407652121 | 303 new figures, mostly small relief-type images along paths, made to be seen by walkers | 🔎 search |
| S30 | University of Washington News, 30 Jun 2026: Rubin Observatory begins the Legacy Survey of Space and Time https://www.washington.edu/news/2026/06/30/rubin-observatory-legacy-survey-space-time-lsst/ | Ten-year survey began 30 Jun 2026; up to seven million alerts a night; 11,000 new asteroids in early surveys including 33 near-Earth objects | 📥 fetched Corrects 'running since 2025': first light 2025, survey 2026 |
| S31 | Pritchard et al. 2025, Scientific Data: Bedmap3 https://www.nature.com/articles/s41597-025-04672-y | 82 million raw points on a 500 m grid; 93% of grid cells interpolated; mean distance to a measurement 5.6 km (SD 7.3), maximum 98 km | 📥 fetched Room for a vault, not a city |
| S32 | Bar-On, Phillips, Milo 2018, PNAS: The biomass distribution on Earth https://weizmann.elsevierpure.com/en/publications/the-biomass-distribution-on-earth/ | Mammals: livestock about 60%, humans about 36%, wild about 4% | 🔎 search |
| S33 | CTBTO news: hydroacoustic data used to aid the search for ARA San Juan; Vergoz et al. 2020, Pure and Applied Geophysics https://link.springer.com/article/10.1007/s00024-020-02625-7 | Detected at HA10 Ascension (over 6,000 km) and HA04 Crozet (over 8,000 km) on 15 Nov 2017; wreck located within 3.5 km | 📥 fetched The door test |
| S34 | Benford 2019, Astronomical Journal: Looking for lurkers, co-orbiters as SETI observables https://iopscience.iop.org/article/10.3847/1538-3881/ab3e35 | Proposes searching Earth's co-orbitals and Lagrange points for probes | 🔎 search |
| S35 | Hui et al. 2021 / Santana-Ros et al. 2022, Nature Communications: the second Earth Trojan 2020 XL5 https://www.nature.com/articles/s41467-022-27988-4 | Confirmed Earth Trojan, natural, about 1 km; stable for about 4,000 years | 🔎 search Both known Trojans are rock |
| S36 | Wikipedia: Blue Ghost Mission 2 (LuSEE-Night, far side) https://en.wikipedia.org/wiki/Blue_Ghost_Mission_2 | Launch no earlier than December 2026 (2027 in current planning); LuSEE-Night radio telescope on the far side | 📥 fetched Corrects 'planned for 2026' |
| S37 | NASA Exoplanet Archive statement on Kepler-452 b; Reassessment with null signal templates, PNAS Oct 2025 https://pubmed.ncbi.nlm.nih.gov/41055991/ | Listed 'controversial' since 12 Feb 2019 (Mullally 2018; Burke 2019); the 2025 reassessment of all 47 habitable-zone candidates gives Kepler-452b a false-alarm probability under 1%; Kepler-186f at 20% FAP is the marginal one | 📥 fetched The 'Earth 2.0' target holds |
| S38 | Wikipedia: Convention on the Regulation of Antarctic Mineral Resource Activities (CRAMRA) https://en.wikipedia.org/wiki/Convention_on_the_Regulation_of_Antarctic_Mineral_Resource_Activities | Signed 1988 to permit regulated mining; Australia and France refused ratification in 1989; replaced by the 1991 Protocol's indefinite ban with a 2048 review | 🔎 search The freezer's history is human |
| S39 | Chandra press release, 21 Aug 2006: NASA finds direct proof of dark matter (the Bullet Cluster) https://chandra.harvard.edu/press/06_releases/press_082106.html | Hot gas collided and slowed; dark matter passed through, mapped by lensing | 🔎 search Coexistence without collision, photographed |
| S40 | Schultheiss et al. 2022, PNAS: The abundance, biomass, and distribution of ants on Earth https://www.pnas.org/doi/10.1073/pnas.2201550119 | About 20 quadrillion ants; about 12 megatons of dry carbon | 🔎 search |
| S41 | Freie Universität Berlin press, Sept 2026: two Science Advances papers on Enceladus (Postberg, Khawaja) https://www.fu-berlin.de/en/presse/informationen/fup/2026/fup_26_116-enceladus-cassini-mikroben-science-postberg/index.html | Plume ice grains freeze slowly and segregate salts and organics into micrometre particles each rich in one substance, so a future probe could identify a microbe in a single grain; the archaeon Methanothermococcus okinawensis grows in simulated Enceladus ocean water. Not a detection | 📥 fetched The headline from the phys.org page Justin pasted; post-cutoff for the author |
| S42 | DESI Collaboration 2025: DR2 Results II, BAO and cosmological constraints https://arxiv.org/abs/2503.14738 | Over 14 million galaxies and quasars; preference for dynamical dark energy over ΛCDM at 2.8 to 4.2σ depending on the supernova sample | 📥 fetched |
| S43 | Schlebusch et al. 2017, Science: Southern African ancient genomes estimate modern human divergence to 350,000 to 260,000 years ago https://www.science.org/doi/10.1126/science.aao6266 | Deepest split among living humans | 🔎 search 'Every living human joins one tree' |
| S44 | Morez Jacobs et al. 2025, Nature: Whole-genome ancestry of an Old Kingdom Egyptian (Nuwayrat) https://www.nature.com/articles/s41586-025-09195-5 | About 80% North African Neolithic, about 20% eastern Fertile Crescent ancestry | 🔎 search Royal-lineage reading B |
| S45 | Axelsson et al. 2013, Nature: The genomic signature of dog domestication reveals adaptation to a starch-rich diet https://www.nature.com/articles/nature11837 | AMY2B copy-number expansion in dogs | 🔎 search |
| S46 | Yamagata et al. 2019, Scientific Reports: Signs of biological activities of 28,000-year-old mammoth nuclei in mouse oocytes https://www.nature.com/articles/s41598-019-40546-1 | Yuka's nuclei showed partial activity (spindle assembly), no division | 🔎 search Corrects 39,000 to 28,000 |
| S47 | Kjær et al. 2022, Nature: A 2-million-year-old ecosystem in Greenland uncovered by environmental DNA https://www.nature.com/articles/s41586-022-05453-y | Oldest DNA read, about 2 Myr | 🔎 search |
| S48 | Wikipedia: Colossal Biosciences dire wolf project (April 2025) https://en.wikipedia.org/wiki/Colossal_Biosciences_dire_wolf_project | Grey wolves with 20 edits at 14 genes, carried by dog surrogates; widely disputed as de-extinction | 🔎 search Every restart has needed a mother |
| S49 | Loron et al. 2019, Nature: Ourasphaira giraldae, billion-year-old fungi https://en.wikipedia.org/wiki/Ourasphaira_giraldae | Fungi in the Canadian Arctic about 1.0 to 0.9 Gya | 🔎 search Fungi before trees |
| S50 | Heads et al. 2017, PLOS One: The oldest fossil mushroom (Gondwanagaricites magnificus) https://journals.plos.org/plosone/article?id=10.1371%2Fjournal.pone.0178327 | About 115 Ma; mushrooms came after forests | 🔎 search |
| S51 | Strullu-Derrien et al. 2014, New Phytologist: Fungal associations in Horneophyton from the Rhynie chert (c. 407 Ma) https://nph.onlinelibrary.wiley.com/doi/10.1111/nph.12805 | Early land plants already carried fungal partners | 🔎 search |
| S52 | Napier Complex, Enderby Land: 3930 Ma granulite zircons (Mount Sones) https://link.springer.com/article/10.1007/BF00376336 | Some of Earth's oldest rocks are in Antarctica | 🔎 search Antarctica's granite is older than the Moon's |
| S53 | Pankhurst et al. 1998: The Chon Aike province of Patagonia and related rocks in West Antarctica, a silicic large igneous province https://www.sciencedirect.com/science/article/abs/pii/S037702739700070X | Jurassic silicic magmatism from Patagonia to West Antarctica, Gondwana breakup | 🔎 search The Pine Island granite's family |
| S54 | Poplin et al. 2018, Nature Biomedical Engineering; Gichoya et al. 2022, Lancet Digital Health https://www.nature.com/articles/s41551-018-0195-0 | Sex from retinal fundus photographs at high accuracy where clinicians cannot; self-reported race from radiographs where radiologists cannot | 🔎 search The AI-perception correction |
| S55 | Wikipedia: Potosí; Global silver trade 16th to 19th centuries https://en.wikipedia.org/wiki/Global_silver_trade_from_the_16th_to_19th_centuries | Colonial extraction with fleets, ledgers, drafted labour and overseers | 🔎 search What an offshore mine's paper trail looks like |
| # | Source | What it says (the number) | Tier · note |
|---|---|---|---|
| X1 | Bekenstein 1973; Hawking 1975: black-hole entropy S = A/4 in Planck units no URL (memory or computed) | Information bounded by area | 🧠 memory |
| X2 | Gibbons & Hawking 1977, Physical Review D: Cosmological event horizons, thermodynamics, and particle creation no URL (memory or computed) | The de Sitter horizon has a temperature and an entropy | 🧠 memory |
| X3 | Steinhauer 2016, 2019: analogue Hawking radiation in a Bose-Einstein condensate no URL (memory or computed) | Hawking radiation observed in a laboratory analogue | 🧠 memory |
| X4 | DESI DR2 (see S42) https://arxiv.org/abs/2503.14738 | Dark energy possibly evolving, 2.8 to 4.2σ | 📥 fetched |
| X5 | Ryu & Takayanagi 2006, PRL: Holographic derivation of entanglement entropy no URL (memory or computed) | Entanglement entropy equals a minimal surface's area | 🧠 memory |
| X6 | Van Raamsdonk 2010: Building up spacetime with quantum entanglement no URL (memory or computed) | Cut entanglement, space tears | 🧠 memory |
| X7 | Jacobson 1995, PRL: Thermodynamics of spacetime, the Einstein equation of state no URL (memory or computed) | Einstein's equations derived as thermodynamics | 🧠 memory |
| X8 | Penington 2019; Almheiri, Engelhardt, Marolf, Maxfield 2019: the Page curve from replica wormholes no URL (memory or computed) | Information recovered from black holes in semiclassical gravity | 🧠 memory |
| X9 | Afshordi, Corianò, Delle Rose, Gould, Skenderis 2017, PRL: From Planck data to Planck era, observational tests of holographic cosmology https://journals.aps.org/prl/abstract/10.1103/PhysRevLett.118.041301 | A holographic early-universe model fits Planck as well as inflation | 🔎 search |
| X10 | Egan & Lineweaver 2010, Astrophysical Journal: A larger estimate of the entropy of the universe https://iopscience.iop.org/article/10.1088/0004-637X/710/2/1825 | Entropy inventory dominated by black holes, about 10^104; horizon maximum about 10^122 | 🔎 search |
| X11 | Penrose 1989, The Emperor's New Mind: the 1 in 10^(10^123) estimate for the initial state no URL (memory or computed) | The low-entropy start | 🧠 memory |
| X12 | Pardo, Fishbach, Holz, Spergel 2018, JCAP: Limits on the number of spacetime dimensions from GW170817 https://arxiv.org/abs/1801.08160 | D = 4.02 (+0.07/−0.10) with SH0ES; 3.98 (+0.07/−0.09) with Planck | 📥 fetched |
| X13 | Lee et al. 2020, PRL: New test of the gravitational 1/r² law at separations down to 52 μm (Eöt-Wash) https://www.npl.washington.edu/eotwash/inverse-square-law | Inverse square holds to 52 µm | 🔎 search |
| X14 | Searching for extra dimensions with gravitational waves: dark-siren constraints from GWTC-4 (June 2026) https://arxiv.org/html/2606.14549v1 | D = 4.38 (+1.91/−1.01), consistent with four | 📥 fetched Post-cutoff; incoming that already landed |
| X15 | Kaluza 1921; Klein 1926 no URL (memory or computed) | Five-dimensional gravity gives gravity plus electromagnetism | 🧠 memory |
| X16 | Clowe et al. 2006: the Bullet Cluster (see S39) https://chandra.harvard.edu/press/06_releases/press_082106.html | Dark matter passed through; gas collided | 🔎 search |
| X17 | Arkani-Hamed, Dimopoulos, Dvali 2000: the manyfold universe (brane-world dark matter) no URL (memory or computed) | Matter on another fold of the brane as dark matter | 🧠 memory |