PROVENANCE PROBLEM

PROVENANCE PROBLEM

What the Dominant Explanations for Reality Actually Have

— and What They Don’t

David Lowe

Independent Research  |  Oklahoma City

February 2026

Phase 1 of the Prosecution Brief

FACTS Summary

F	Find	The three dominant frameworks claiming to explain reality — Darwinian evolution, Big Bang cosmology, and Intelligent Design — each fail to meet the basic evidentiary standards they claim to uphold. None provides a complete causal chain for its central claim. None publishes formal conditions under which it would admit defeat.
A	Admit	This paper does not propose an alternative. It is not an argument for anything. It is an audit of what already exists, using only data published by proponents of each framework and admissions made by their own leading figures.
C	Claim	The current scientific and theological consensus rests on frameworks that are incomplete by their own metrics, defended by institutional momentum rather than evidential closure, and shielded from scrutiny by the assumption that no better alternative exists.
T	Test	This paper fails if any of the three frameworks can demonstrate: (1) a complete, empirically verified causal chain for its central claim, (2) formally published defeat conditions, and (3) quantitative predictions confirmed above 5σ significance.
S	Snap	If all three frameworks can produce the above, this paper is wrong and should be retracted.

I. The Question Nobody Asks

Every civilization asks the same three questions. Where did we come from? What is this place? What are we?

Three frameworks currently dominate the public answers. Darwinian evolution explains where biological life came from. Big Bang cosmology explains what this place is and how it got here. Intelligent Design argues that both point to a designer.

Most people assume these frameworks are well-established, thoroughly tested, and internally complete. After all, Darwin published in 1859. The Big Bang has been the standard model since the 1960s. Intelligent Design has been debated for thirty years.

But there is a question that almost nobody asks about any of them, and it is the simplest question in all of science:

What, specifically, do you actually have?

Not what do you claim. Not what do you believe. Not what institution endorses you. What is your evidence, how complete is your causal chain, and under what conditions would you admit you’re wrong?

This paper asks that question of all three. It uses only their own data, their own published results, and their own admissions. It adds nothing. It proposes nothing. It simply collects what each framework has said about itself and asks whether it meets the standards it claims to uphold.

The results are not what most people expect.

II. Darwin: The Provenance of a Theory

The Man

Charles Darwin enrolled at Christ’s College, Cambridge in January 1828 after dropping out of medical studies at Edinburgh. His father intended the move as preparation for ordination in the Church of England — the clergy being a respectable career that would provide financial stability and leisure for Darwin’s growing interest in nature. The ordinary Bachelor of Arts curriculum at Cambridge included heavy theological content — Darwin studied William Paley’s Evidences of Christianity and Natural Theology, passed examinations in these works, and later wrote that he could have recited the Evidences from memory. He earned his ordinary BA in 1831. He never earned a degree in biology, zoology, geology, or any natural science. His scientific education came entirely from extracurricular mentors — the Reverend John Stevens Henslow (botany) and Adam Sedgwick (geology). It was Henslow who recommended Darwin for the position aboard HMS Beagle as naturalist and gentleman companion for Captain Robert FitzRoy.

None of this means Darwin was wrong. Credentials don’t determine truth. But it matters for provenance — for understanding where an idea came from and what it was built on. The theory that currently provides the dominant explanation for all biological life on Earth was formulated by a man whose formal education was an ordinary arts degree at a theological training institution, whose scientific skills were acquired informally, and who set sail on the Beagle at age 22 with no academic credentials in any natural science.

The Book

On the Origin of Species was published by John Murray in 1859. Murray was a commercial publisher, not a scientific press. The book was written for a general audience, priced to sell, and marketed as a popular work. It was not peer-reviewed in the modern sense. It contained no formal mathematical framework, no quantitative predictions, and no falsification criteria.

Again — this does not make the book wrong. Many great scientific works began as popular publications. But provenance matters. The foundational text of modern evolutionary biology was a commercially published book written for a lay audience, without mathematical formalism or stated defeat conditions.

One hundred and sixty-six years later, it is reasonable to ask: has the theory matured beyond its origins? Has it filled in the gaps that any honest reader of the original text would notice?

The Five Links

The central claim of evolutionary theory is comprehensive: that unguided natural processes account for the origin and diversification of all life on Earth, from the first self-replicating molecules to conscious human beings.

This claim requires five causal links to be empirically demonstrated — not theorized, not modeled, not inferred, but demonstrated through reproducible experiment or direct observation:

Link 1: Chemistry to Self-Replication. Non-living chemicals must assemble into a self-replicating molecular system without guidance. This is the origin of life — abiogenesis. As of 2025, it has not been demonstrated. The Miller-Urey experiment (1952) produced amino acids, not self-replicating systems. The RNA World hypothesis remains a hypothesis. No laboratory has produced a self-replicating molecule from a plausible prebiotic chemistry under plausible early-Earth conditions without researcher intervention.

Link 2: Self-Replication to Cellular Life. A self-replicating molecule must develop into a functioning cell with a membrane, metabolism, and genetic code. The gap between a replicating RNA strand and the simplest known cell (Mycoplasma genitalium, 525 genes, 580,000 base pairs) is not small. It is the difference between a sentence that copies itself and a factory that builds copies of itself from raw materials. No empirical pathway from one to the other has been demonstrated.

Link 3: Single Cells to Multicellular Organisms. Individual cells must develop the ability to cooperate, specialize, and form tissues. This requires not just genetic change but the emergence of entirely new regulatory systems — cell signaling, differentiation programs, apoptosis. Laboratory experiments with yeast (Ratcliff et al., 2012) have produced cell clusters, but clusters are not organisms. No experiment has produced a genuine multicellular organism with differentiated cell types from a unicellular ancestor.

Link 4: Simple Organisms to Complex Body Plans. The Cambrian explosion — approximately 541 million years ago — saw the sudden appearance of most major animal body plans within a geologically brief window. The fossil record shows this. Darwin acknowledged it as a serious difficulty. The difficulty has not been resolved. The mechanisms that could generate fundamentally new body architectures (not variations within existing ones) in the timeframes indicated by the fossil record remain undemonstrated.

Link 5: Biological Complexity to Consciousness. At some point, biological organisms became aware. They developed subjective experience — the capacity to feel pain, perceive color, contemplate their own existence. This is the “hard problem of consciousness” named by David Chalmers in 1995, and it is not a gap in evolutionary theory — it is a gap in all of science. No framework, evolutionary or otherwise, has demonstrated a mechanism by which physical processes give rise to subjective experience. Neural correlates of consciousness have been mapped. The experience itself has not been explained.

The scorecard: 0 for 5.

Not one of these five links has been empirically demonstrated. Each one is supported by models, hypotheses, inferences, and extrapolations — but not by the reproducible experimental evidence that science demands of every other field. If a pharmaceutical company claimed a drug worked and then admitted it had never been tested in any of the five required trial phases, it would not be approved. The standard is different, apparently, when the claim is about the origin of all life.

This does not prove evolution is wrong. What it proves is that evolution, in its strongest form — the claim that unguided natural processes fully account for the origin and diversification of all life including consciousness — is not an established fact. It is an incomplete theory with five unfilled gaps at precisely the points where the explanatory burden is heaviest.

III. The Big Bang: What We Know and What We Pretend

Three Pillars

Big Bang cosmology rests on three empirical pillars, and they are strong:

The Cosmic Microwave Background (CMB). In 1965, Penzias and Wilson detected a faint microwave signal coming from every direction in the sky. It matched the prediction of a hot, dense early universe that had cooled as it expanded. The temperature anisotropies in the CMB, mapped in exquisite detail by COBE, WMAP, and Planck, match the predictions of standard cosmology to remarkable precision. This is real data. It is one of the greatest observational achievements in the history of science.

The Expansion of the Universe. Edwin Hubble demonstrated in 1929 that distant galaxies are moving away from us, and the farther they are, the faster they recede. This has been confirmed by every major observational program since. The universe is expanding. This is not in dispute.

Big Bang Nucleosynthesis. The predicted abundances of hydrogen, helium, and lithium produced in the first few minutes after the Big Bang match observations to impressive accuracy. The ratio of hydrogen to helium in the observable universe is approximately what the model predicts.

These three pillars are legitimate. They represent genuine scientific achievement. Any honest assessment must begin by acknowledging them.

But an honest assessment must also acknowledge what the model does not explain.

The 95% Problem

The standard model of cosmology — ΛCDM — requires that approximately 95% of the total energy content of the universe consists of substances that have never been directly detected.

Dark matter (approximately 27%) was postulated to explain why galaxies rotate faster than their visible mass would allow. Fritz Zwicky first noticed the discrepancy in 1933. Vera Rubin confirmed it observationally in the 1970s. Ninety years later, despite dozens of dedicated experiments — XENON, LUX, PandaX, the Large Hadron Collider — no dark matter particle has been directly detected. Not one.

Dark energy (approximately 68%) was postulated in 1998 to explain why the expansion of the universe is accelerating rather than slowing down. Its nature is completely unknown. It may be a cosmological constant. It may be a dynamic field. It may be something that doesn’t fit into any existing theoretical framework. The honest answer is: we don’t know what it is.

Combined: the standard model of cosmology claims to explain the universe but admits it cannot identify 95% of its contents. The model works — the predictions match observations for the 5% we can see. But working and being complete are different things.

If an engineering firm designed a bridge and said “we understand 5% of the forces acting on this structure, but trust us, the bridge will hold,” no one would drive across it.

The Hubble Tension

The Hubble constant — the rate at which the universe is expanding — should be a single number. It is not.

Measurements from the early universe (the CMB, via the Planck satellite) give H₀ ≈ 67.4 km/s/Mpc. Measurements from the nearby universe (Type Ia supernovae, via the SH0ES team) give H₀ ≈ 73.0 km/s/Mpc.

The discrepancy is approximately 8–9%, and it has reached statistical significance above 5σ — which in physics is the threshold for claiming a discovery. As of late 2025, the situation has grown more complex rather than simpler. The Carnegie-Chicago Hubble Program (CCHP), using JWST observations with alternative distance indicators (TRGB and JAGB stars rather than Cepheids), reported a value of approximately 70.4 km/s/Mpc — splitting the difference. The SH0ES team challenged these results, arguing the sample size was too small and identifying missing uncertainty sources. Meanwhile, the TDCOSMO collaboration’s December 2025 results using gravitational lensing time delays — a method completely independent of both the CMB and the distance ladder — found values consistent with the higher local measurement, deepening the tension rather than resolving it.

The cosmology community has proposed dozens of solutions — early dark energy, modified gravity, new particles, systematic errors in either dataset. None has achieved consensus. The fundamental question remains open: either multiple independent measurement teams using different methods are all making the same systematic error, or the standard model is missing something fundamental about how the universe works.

The JWST Problem

The James Webb Space Telescope, operational since 2022, was designed to see the earliest galaxies — faint, small, formless objects just beginning to coalesce from primordial gas.

Instead, it found galaxies that should not exist.

At redshifts above z = 10 — corresponding to a universe less than 500 million years old — JWST has detected massive, mature, well-structured galaxies. Galaxies with stellar populations, chemical enrichment, and morphological features that, under the standard model, require billions of years to develop.

The reaction from the cosmology community has been measured but unmistakable. As of 2024, multiple published papers acknowledge that these early galaxies present a “tension” with ΛCDM. The word tension in cosmology is a diplomatic way of saying “our model didn’t predict this and we don’t know why it happened.”

None of this disproves the Big Bang. The three pillars still stand. But it means the standard model is not a finished explanation — it is a partial explanation that works well for the 5% of the universe we can see and becomes increasingly strained as we push to earlier epochs, higher energies, and larger scales.

IV. Intelligent Design: The Case That Never Was

The Promise

The Intelligent Design (ID) movement emerged in the late 1980s and early 1990s as a response to the perceived failures of Darwinian evolution. Its central claim: certain biological structures are “irreducibly complex” — they cannot function unless all their components are present simultaneously, and therefore could not have evolved through gradual steps.

Michael Behe introduced the concept in Darwin’s Black Box (1996). William Dembski developed the mathematical framework of “specified complexity” in The Design Inference (1998). The Discovery Institute, founded in 1990, became the institutional home of the movement.

Over the next thirty years, the ID movement produced approximately fifty books, organized conferences, funded research fellowships, engaged in legal battles (most notably Kitzmiller v. Dover in 2005), and built a substantial public following.

The Absence

In all of that output — thirty years, fifty books, hundreds of articles, millions of dollars in funding — the Intelligent Design movement has never published:

A single formal axiom. Not one precisely stated, logically structured proposition from which other propositions can be derived. The movement has arguments, intuitions, and rhetorical positions, but no formal axiomatic structure.

A single quantitative prediction. ID has never predicted a number — a measurement, a ratio, a correlation, a threshold — that could be tested against observational data. “This looks designed” is a judgment. It is not a prediction.

A single defeat condition. At no point has the ID movement published, in any book or paper, a formally stated criterion under which it would admit its central claim is wrong. What observation would falsify intelligent design? What experiment could disprove it? What data, if obtained, would cause the movement to retract?

The absence of these three elements — axioms, predictions, defeat conditions — is not a minor oversight. It is the difference between a scientific hypothesis and a rhetorical position. Science advances by publishing claims that can be killed. A claim that cannot be killed is not science, regardless of how many books defend it.

This is not an attack on the people involved. Many ID proponents are sincere, intelligent, and deeply motivated by legitimate scientific concerns. Behe’s observation about the bacterial flagellum raised a real question. Dembski’s work on information theory touches real mathematics. The intuition that the universe appears designed is one of the oldest and most persistent human observations.

But intuition is not formalism. A question is not an answer. And thirty years without a single formal axiom, prediction, or defeat condition is not a research program that hasn’t finished yet — it is a research program that never started.

V. The Audit

Consider what we have just reviewed.

The dominant explanation for biological life was formulated by a man who earned an ordinary arts degree at a theological training institution, published as a commercial book, and — after 166 years of development — still cannot empirically demonstrate any of the five causal links required by its own central claim.

The dominant explanation for the physical universe rests on three strong empirical pillars but admits it cannot identify 95% of the universe’s contents, cannot resolve an 8–9% disagreement in its most fundamental measurement, and is finding structures through its newest telescope that its model did not predict and cannot explain.

The primary challenger to both — Intelligent Design — has produced fifty books in thirty years and never formulated a single formal axiom, quantitative prediction, or defeat condition.

These are not opinions. These are the facts reported by the practitioners themselves. The 0/5 links are acknowledged in the origin-of-life literature. The 95% unknown is stated in every cosmology textbook. The Hubble tension is a named, active research problem. The JWST anomalies are published in peer-reviewed journals. The absence of ID axioms can be verified by reading every book the movement has produced.

The question is not whether these frameworks have value. They do. Darwin’s insight about natural selection is one of the great intellectual achievements in human history. The Big Bang’s three pillars represent genuine knowledge about the universe. Even Intelligent Design’s intuition about apparent purpose in nature captures something that billions of people recognize.

The question is whether they are complete — whether they deliver what they promise.

And the answer, by their own accounting, is no.

VI. The Standard

What would it take for a framework to actually deliver on the promise of explaining reality?

The question sounds impossible, but the requirements are straightforward. Any framework claiming to explain the origin, structure, and nature of reality should be able to provide:

Formal axioms. Precisely stated propositions from which consequences can be derived. Not arguments. Not intuitions. Not narratives. Axioms — the kind of foundational statements that mathematics, logic, and physics have used for millennia.

Quantitative predictions. Numbers that the framework predicts and that observation can confirm or deny. Not “this should generally look like X.” Specific values, ratios, or thresholds.

Defeat conditions. Formally published criteria under which the framework would admit failure. If the framework cannot state what would prove it wrong, it has not said anything meaningful.

Empirical confirmation. Predictions that have been tested and confirmed, at a statistical significance sufficient to be taken seriously. In particle physics, the threshold is 5σ — a less than one-in-three-million chance that the result is a fluke.

A complete causal chain. Not explanations for the easy parts with hand-waving for the hard parts. A continuous, demonstrable account from origin to present.

These are not unreasonable demands. They are the demands that science makes of every other field. Pharmaceutical companies must meet them. Engineering firms must meet them. Physicists claiming to have discovered a new particle must meet them.

The question is not whether any current framework meets these standards. We have already seen that none of them do. The question is whether meeting them is even possible — or whether the standard is so high that nothing could ever satisfy it, and we are simply stuck choosing between incomplete options.

That question is worth asking. It is worth asking seriously, without assuming in advance what the answer is.

But it is a question for another paper.

This paper only asks the preliminary question — the one that must be answered before any other conversation can be meaningful:

Do the people claiming to explain reality actually have what they say they have?

The record shows they do not.

What follows from that is up to the reader.

Defeat Condition for This Paper

This paper claims that none of the three frameworks reviewed can demonstrate a complete causal chain, formal defeat conditions, or confirmed quantitative predictions above 5σ for their central claims.

This paper is defeated if:

1. Any origin-of-life experiment demonstrates self-replication from prebiotic chemistry under plausible early-Earth conditions without researcher intervention, closing Link 1.

2. The nature of dark matter or dark energy is empirically identified, reducing the unknown fraction of the universe below 50%.

3. The Hubble tension is resolved to below 2σ through a single consistent framework.

4. The Intelligent Design movement publishes a formal axiomatic system with quantitative predictions and stated defeat conditions.

Any one of these would substantially weaken the paper’s argument. All four would defeat it entirely.

The author welcomes any of these outcomes. That is what defeat conditions are for.

References

Behe, M. J. (1996). Darwin’s Black Box: The Biochemical Challenge to Evolution. Free Press.

Chalmers, D. J. (1995). “Facing Up to the Problem of Consciousness.” Journal of Consciousness Studies, 2(3), 200–219.

Darwin, C. (1859). On the Origin of Species by Means of Natural Selection. John Murray.

Dembski, W. A. (1998). The Design Inference: Eliminating Chance through Small Probabilities. Cambridge University Press.

Di Valentino, E., et al. (2021). “In the Realm of the Hubble Tension — A Review of Solutions.” Classical and Quantum Gravity, 38(15).

Labbé, I., et al. (2023). “A Population of Red Candidate Massive Galaxies ~600 Myr after the Big Bang.” Nature, 616, 266–269.

Miller, S. L. (1953). “A Production of Amino Acids Under Possible Primitive Earth Conditions.” Science, 117(3046), 528–529.

Penzias, A. A., & Wilson, R. W. (1965). “A Measurement of Excess Antenna Temperature at 4080 Mc/s.” The Astrophysical Journal, 142, 419–421.

Planck Collaboration. (2020). “Planck 2018 Results. VI. Cosmological Parameters.” Astronomy & Astrophysics, 641, A6.

Ratcliff, W. C., et al. (2012). “Experimental Evolution of Multicellularity.” PNAS, 109(5), 1595–1600.

Riess, A. G., et al. (2022). “A Comprehensive Measurement of the Local Value of the Hubble Constant.” The Astrophysical Journal Letters, 934(1), L7.

Rubin, V. C., & Ford, W. K. (1970). “Rotation of the Andromeda Nebula from a Spectroscopic Survey of Emission Regions.” The Astrophysical Journal, 159, 379.

TDCOSMO Collaboration. (2025). “TDCOSMO 2025: Cosmological Constraints from Strong Lensing Time Delays.” Astronomy & Astrophysics, 704, A63.