Stephen Meyer, John Lennox, and James Tour: Three Scientists on the Origins of Everything

At a glance

Peter Robinson takes Uncommon Knowledge to Salzburg and sits three men down at one table: Stephen Meyer, a geophysicist turned historian and philosopher of science who directs the Discovery Institute's Center for Science and Culture; John Lennox, Emeritus Professor of Mathematics at Oxford; and James Tour, the W. F. Chao Professor of Chemistry at Rice, holder of more than 130 patents. The question on the table is the oldest one there is, asked in the language of twentieth century science: did the universe come into existence by accident, or did something intend it.

The conversation is built around three scientific developments, the same three that organize Meyer's book The Return of the God Hypothesis and the documentary The Story of Everything that all three of them appear in. One: the universe had a beginning, established by red shift, by the singularity theorems, and by the microwave background. Two: the constants of physics sit on a razor's edge, tuned so finely that Roger Penrose's estimate of the required precision cannot be written out even if you put one digit on every particle in the cosmos. Three: the cell turned out to run on digital code, and seventy years after Miller and Urey nobody can get chemistry to produce it.

Each man owns one leg of the argument and pushes it as far as it goes. Meyer supplies the history and the inference to design. Lennox supplies the mathematics, the philosophy, and the sharpest line of the hour, that information is immaterial and that alone kills materialism. Tour supplies the bench chemistry and refuses every polite exit: no living cell, no plausible route to one, no idea where life came from, none whatsoever. Robinson pushes back where a viewer would, plays the materialist, quotes the reviews that called his guests cranks, and asks all three at the end how they would answer a nineteen year old at Rice or at Oxford who thinks Bertrand Russell had it right.

This page rebuilds the whole hour in the order it happened, with the arguments, the numbers, the anecdotes, and the jokes intact.

The deep explanation

Cold open: accident, or intention?

The show opens on the question itself, before anyone is introduced. Did the universe come into existence by accident, or did something intend it, or intend us. Then the roll call: a mathematician, John Lennox. A historian of science, Stephen Meyer. A scientist, James Tour.

Robinson sets up in Salzburg, Austria, and reads the credentials out with care, because the credentials are going to matter later when the panel is accused of not doing science. Meyer started professional life as a geophysicist, went back to school, and took a doctorate from Cambridge in the history and philosophy of science. Lennox is Oxford's Emeritus Professor of Mathematics and president of the Oxford Centre for Christian Apologetics, most recently the author of God, AI and the End of History. Tour teaches chemistry, materials science and nanoengineering at Rice, holds more than 130 patents, and his most recent book is the expanded edition of The Mystery of Life's Origin.

Two quotations: Dawkins against the psalmist

Robinson does not warm up. He reads two texts and asks which one better fits the most recent developments in science.

The first is Richard Dawkins in 1995, from River Out of Eden: "The universe that we observe has precisely the properties we should expect if there is, at bottom, no design, no purpose, no evil, no good, nothing but pitiless indifference."

The second is three thousand years old, Psalm 19: "The heavens declare the glory of God. The skies proclaim the work of his hands. Day after day they pour forth speech. Night after night they reveal knowledge."

Meyer goes first and gives the sentence the whole hour is going to defend. The psalmist has it right, and Dawkins, who has a talent for framing issues beautifully, nevertheless gets it wrong, because the new developments in science, especially in biological and cosmological origins, are pointing to the reality of a transcendent designing creator.

Tour, in one line: "I would think the psalmist has it much, much closer."

Robinson turns to Lennox and asks him, half teasing, to please stick up for rationalism. Lennox takes the invitation literally and turns it around. He will stick up for rationalism and say the psalmist has it exactly right, because this is a word based universe. The fact that we can describe it in mathematics. The fact that biology uses the vocabulary of language to describe the central features of DNA. And then the jab: Dawkins's statement is contradicted by his own life, because he does in fact appear to believe in good and evil.

That exchange sets the shape of everything that follows. The claim is not that science leaves room for God at the edges. The claim is that the specific discoveries of the last hundred years are the wrong discoveries for the materialist to have made.

Development one: the universe had a beginning

Robinson introduces the first of the three developments with a clip from The Story of Everything, the documentary based on Meyer's book, opening in American theaters on April 30th. The clip is Carl Sagan, and it states the stakes exactly: "If the universe was always here, if the universe was infinitely old, then there's nothing for a creator to do."

Robinson hands that to Meyer with a specific hook. During a scientific conference in 1927, a Belgian priest and astronomer named Georges Lemaitre shared a taxi with Albert Einstein. What happened in that taxi.

The taxi ride

Meyer calls it a fascinating story and tells it as a story about a man arguing with his own equations.

General relativity, on Einstein's own terms, implied a dynamic universe expanding outward from a beginning. Einstein was unhappy with that conclusion. Robinson stops him: Einstein himself? Einstein himself. So he fiddled with his own equations, adding the term that made the outward push balance the gravitational pull exactly, so that the universe could be depicted as static.

Lemaitre worked the same field equations and showed that even on Einstein's own terms the universe was not static. He also knew the astronomical data coming out of Mount Wilson in California, which was showing red shift, galaxies moving away from us, detectable because their light had shifted toward the red end of the electromagnetic spectrum.

So in the taxi, on the way to the conference in Belgium in 1927, Lemaitre confronts Einstein with the astronomical evidence and with his own work on the field equations. Einstein is reported to have replied: "Well, your mathematics is impeccable, but your physical intuition is abominable."

He rejects the expanding universe out of hand. Two years later Arthur Eddington at Cambridge urges him again to go out to Mount Wilson and look at what Hubble has been seeing through the telescope. Einstein goes. There is famous news footage.

Red shift, in one paragraph

Robinson interrupts to make Meyer explain red shift properly, which is the right instinct, and Meyer does it without jargon.

Shine light through a prism and it separates into colors, red through violet. Red light corresponds to longer wavelengths. If an object emitting light is moving away from you, that wavelength gets stretched, so the light shifts toward red. It is redder than it would otherwise be.

Robinson supplies the analogy himself: a ship's horn as the ship pulls out to sea. Meyer accepts it and offers the standard one, the train whistle and the Doppler effect from high school. The pitch drops as the wavelength stretches.

Then the observation that changed cosmology. As Hubble surveyed the night sky with the new dome telescopes going up in the 1920s, his photographic plates and his spectral analysis showed that galaxies in every quadrant he investigated were red shifted. The light was being stretched. The universe was expanding outward as if from a beginning point.

And that is the discovery that made people run the film backwards. If the universe is expanding forward in time, what was it like a thousand years ago, a million, a billion. However far back you go, you eventually reach a point where all that galactic material converges to one point, marking the start of the expansion and arguably the beginning of the universe itself.

Hawking's singularity

Robinson moves to 1966 and a young Cambridge physicist named Stephen Hawking, who presented a mathematical demonstration of the singularity, the moment when all matter and light were infinitely tight. Robinson admits, in a nice piece of hosting, that he is reading words he does not understand, and hands it to Lennox.

Lennox agrees these are very difficult concepts. What Hawking did was confirm what Lemaitre had predicted, what the red shift showed and what Hubble had seen, and give it a stronger, more mathematical confirmation.

Then he jumps forward. Three brilliant mathematicians, Alexander Vilenkin, Arvind Borde and Alan Guth, showed mathematically that you simply cannot have an infinite sequence going backwards in time. Lennox hears in that the old Kalam philosophical argument, that there cannot be an infinite sequence of steps backward in time. From their perspective, he says, it is established that there was a beginning. Multiverse or no multiverse, there was an absolute beginning. Which confirms the statement of Genesis, that there was a beginning.

The heckler

Lennox then tells the story he clearly enjoys telling. At a conference of very high powered physicists not far from Salzburg a few years ago, he claimed that "In the beginning God created" was relevant, and was interrupted by a heckler, a famous physicist.

"Look, Professor Lennox, you are not saying to us, are you, that you believe that the first statement of Genesis has any relevance for us today?"

Lennox said: I am. Of course the Bible is not a textbook of science, but when it says in the beginning God created the heavens and the earth, it is talking about the same heavens and earth you study as a cosmologist.

Then he lands the historical point, which is the interesting part. For centuries what we now call science was dominated by the idea that matter and space were eternal, because Aristotle held sway. It was only in the 1960s that the evidence started coming in that there was a beginning. And in his own country, the UK, the beginning was resisted by the scientific establishment.

Robinson, deadpan: Einstein himself. Lennox: Einstein himself, who did later change his mind.

Is it actually a scientific finding?

Robinson asks the question that decides whether any of this counts. Is the Big Bang strictly speaking an empirical finding, not a philosophical one? No philosopher predicted it. Aristotle predicted the opposite. We discovered it. Is that fair?

Meyer says yes, with a correction of emphasis: we discovered evidence for it. In the 1950s most scientists did not believe it. It was not until 1964 and the discovery of the cosmic microwave background radiation that the argument became convincing. Lennox stresses that it is a separate line of evidence, independent of red shift, providing additional confirmation of the beginning. The community was not there, and then, in the early sixties, it started changing.

Meyer's second pass at Hawking

Meyer asks for another cut at the Hawking result, because the underlying idea is actually quite intuitive once you strip the mathematics off, and he is right that it is worth the second pass.

Under general relativity, which is at bottom a theory of gravity, massive bodies curve the fabric of space time. Hawking was studying black hole physics in the 1960s. He realized that in the forward direction of time matter was getting more and more diffuse as the universe expanded, which meant the curvature of the universe was getting less and less pronounced. Run it backwards and the matter is more and more densely concentrated, so the space of the universe is more and more tightly curved. Go back far enough and you reach a limiting case where you cannot go back any further, because the matter is so densely concentrated it becomes infinitely dense and the curvature goes to infinity. At that point the laws of physics break down. That is what marks the beginning of the universe.

Meyer also notes the wrinkle: after Hawking proved the singularity theorem, he was not quite sure he liked his own result.

Why a beginning is a problem

Robinson states the challenge as he understands it: if there was a beginning, something had to begin it, there must have been a first mover.

Meyer sharpens it into the version that actually does the work. If space, time and energy begin a finite time ago, then before that, or independent of that, there is no matter to do the causing. So you cannot have a materialistic explanation for the origin of matter itself.

That is the whole cosmological leg of the argument in one sentence, and Robinson simply says: got it.

Development two: fine tuning

The second development comes in with another clip from the film. The basic idea of fine tuning is that the universe is just so. Its properties, the initial conditions, the so called constants of physics, the laws of nature, rest on a razor's edge, so that if they were slightly different than they are in the actual universe, the universe would not be habitable. It would not be compatible with life.

Robinson asks what kinds of parameters we are talking about.

Meyer answers with numbers. The basic parameters of physics fall within very narrow ranges, outside which life, stable galaxies, even basic chemistry would be impossible. The cosmological constant, the force responsible for the expansion we have been discussing, is fine tuned to something like one part in ten to the ninetieth power. A little smidge one way and you get heat death, a little smidge the other and the universe re collapses. The gravitational constant, the masses of the quarks, the speed of light, all of them fall in sweet spots. Physicists now talk about a Goldilocks universe: not too hot, not too cold, not too strong, not too weak, everything just right.

The knobs

Robinson offers his own picture and it turns out to have a distinguished pedigree. He imagines a control room full of knobs, any one of which, if a child wandered in and bumped it, would end the universe as we know it and certainly human life on this planet. How many knobs are there?

Several dozen, says Meyer, depending on which physicist you ask. And the illustration Robinson just improvised belongs to one of Lennox's own teachers at Cambridge, Sir John Polkinghorne. Polkinghorne used to ask his students to imagine a universe creating machine with a knob for the strength of gravity, one for electromagnetism, one for the cosmological constant, a slider for the speed of light, and so on. Every one of those parameters is precisely set, and a little bit off in either direction makes life in the universe impossible.

Tour: change the water molecule and chemistry dies

Robinson asks whether Tour runs into these in his working life, and Tour's answer is that Meyer was underselling it. Steve was underestimating the number of fine tuning parameters there are.

His example is water. If you just change the dipole moment of water, meaning how much electron density sits on one side of the water molecule versus the other, by a fraction of a percent, life becomes impossible. Everything in chemistry is balanced perfectly for us to have life.

This is a good moment in the conversation, because it moves fine tuning down from cosmology, where the numbers are abstract, into the chemistry of a molecule everyone has held in their hand.

Hoyle, carbon, and the atheist who was shaken

Robinson turns to the mathematician: how improbable is life, and is there a way of quantifying it?

Extremely improbable, says Lennox, and his first example is personal. Sir Fred Hoyle, an atheist, was Lennox's examiner at Cambridge. Hoyle predicted a resonance in carbon which was later discovered. When it was discovered, Hoyle's reaction was: "Nothing shook my atheism like that discovery."

Meyer adds that the documentary tells the Hoyle story well, and supplies the line Hoyle is famous for in their fields: "A common sense interpretation of the evidence suggests that a super intellect has monkeyed with physics." The table laughs.

Penrose's number

Then Lennox produces the number that ends the section.

Sir Roger Penrose, one of the most brilliant mathematicians in the world, who worked with Hawking, has an analogy in his book. If you want a universe with the second law of thermodynamics, where even your Cadillac will rust and everything runs down, then, in Penrose's own words, and Penrose is not a believer in God, "the creator's aim must be accurate to one part in ten to the power ten to the power" a large number, to get our universe.

The transcript garbles the exponent, but the figure Penrose gives in The Emperor's New Mind and The Road to Reality is one part in ten to the power of ten to the power of one hundred and twenty three. Lennox gives the intuition that matters more than the digits: many people have pointed out that if you wrote a one here and then a zero on every elementary particle in the universe, you still could not write that number out. The improbability is beyond our imagining.

And then the argumentative move. The idea of a creator is extremely close when you see figures like that. The important thing, says Lennox, is that fine tuning has been scientifically established. They have got to explain it. And they do not have an explanation that actually works, apart from the God hypothesis.

Interlude: mites on a plum

Before the third development Robinson runs the film's counterpoint clip, and it is the most eloquent statement of the opposing view in the whole hour, which is presumably why it is there.

Here we are, like mites on a plum. The plum is this little planet, going around an insignificant local star, the sun. That star is on the obscure outskirts of an ordinary galaxy, the Milky Way, which contains four hundred billion other stars. And this galaxy is one of something like one hundred billion other galaxies that make up the universe. And it is now beginning to look as though this universe is one of an enormous number, maybe even an infinite number, of other closed off universes. So the idea that we are central, that we are the reason there is a universe, is pathetic.

Nobody at the table answers it directly. The answer, implicitly, is the next forty minutes.

Development three: the information enigma

Robinson opens the third leg with a memory, and it is the right way in, because it is most people's only exposure to origin of life research.

He remembers a ninth or tenth grade science textbook describing the Miller and Urey experiment. 1952, two professors at the University of Chicago, a closed system of glass tubes. In goes water to represent the ancient ocean, methane, ammonia and hydrogen to mimic the early atmosphere, and then electrical sparks to simulate lightning. Out come amino acids. And the strong implication he took away as a schoolboy was: we have figured out the origins of life, scientists will keep working on this, and sooner or later they will come up with a living cell.

Has that happened?

Lennox, delighted: "Watch out, you're going to provoke him."

What was actually in the flask

Tour does not dispute the result. He disputes the story built on it, and he does it as a synthetic chemist looking at a product mixture.

There is no doubt they made amino acids. But the amino acids were a very small fraction of what was in there. Many other things came out with them, and you have to stop the reaction early or the amino acids get consumed. They undergo what he calls the Millard reaction, meaning the Maillard reaction, in which the amine group reacts with an aldehyde that forms in the mixture and the whole thing decomposes. He gives the kitchen version: the Maillard reaction is why bread goes brown in the oven and forms that crusty top. Everything decomposes.

So if you stop it early you can find some amino acids, but you also find many other carboxylic acids and many other amines. Small quantities of everything. And of the amino acids you do get, the simplest ones dominate: glycine and alanine in large amount, the others in very small amounts. Of the ten or twelve they isolated, one greatly predominates, and none of that would be useful. On top of that the products had no chirality, meaning no handedness, and biology needs one hand only.

That is the technical content behind the textbook picture, and none of it made the textbook.

Seventy years later

Robinson presses. This is more than seventy years ago. What have you chemists been doing? How come nobody has produced a living cell?

Tour's answer is that the premise was wrong from the start. It was really premature to think life would come from that. And then he gives the line that structures his whole position: the more we learn about the cell, the harder this target gets. Every year it gets harder, because the cell is more complex than we thought the year before.

Even if we move what looks like a little bit closer, the target has moved miles away against the millimeters we advanced. That is how we know we are not even close. You can track whether you are approaching a target. You track the distance to it. And when the target is receding much faster than you are approaching, it is not going to be solved next year.

Then the sentence that made the clip circulate: "All the origin of life researchers will die of old age before this is discovered. Their students will die of old age, and their students' students will die of old age. So when you join one of these research groups, be prepared to die of old age without solving this."

Robinson checks that he has heard it correctly. Seventy years after Miller and Urey, and a good many years after he and who knows how many other American schoolchildren read about it in a textbook, the leaves on those trees, the fish in that lake, the four men at that table: we have no idea where life comes from?

"We have absolutely no idea where life comes from. None whatsoever."

Robinson then does something worth noticing. He states Tour's credentials back at him, out loud, as a defense against the obvious dismissal: you say that as a full professor at Rice with 130 patents, this is not some snake handling crazy person. Meyer adds the rest of the ledger, 150 peer reviewed publications, one of the top organic synthesis chemists in the world. He knows the chemistry. The chemistry does not work.

Tour's final framing of the scale: that is one problem out of a thousand problems that have to be solved to get life. Absolutely clueless on the origin.

The irony of 1953

Meyer asks to unpack the receding target, because the phrase can be misread. The target is not receding because anything in the cell is changing. It recedes because our understanding of the cell's complexity keeps growing.

And then he lays down the coincidence that organizes the rest of the hour. One of the huge ironies of the 1952 and 1953 Miller and Urey work is that in 1953, the same year their publication came out, we also got the first elucidation of the DNA molecule by Watson and Crick.

What that revealed, and what followed from it, is that DNA contains information in a digital form, and that the information is part of a complex information processing system that makes life possible. So amino acids are not the finish line, they are building blocks of proteins, and proteins are components in an information processing system that reads the information off the DNA to build the molecular machines.

In other words: 1953 gave the field its most famous prebiotic experiment and, in the same year, the discovery that made that experiment's target vastly harder.

Two meters of code in every cell

Robinson asks how long a typical strand of DNA is. Tour: it depends on the organism. In a human being it will be two meters. Robinson, incredulous: in each cell? Yes.

Meyer adds that even in the simplest cells it will be at least thousands of units long.

But Tour immediately blocks the easy conclusion, because DNA is not a protein. Amino acids make proteins. DNA is a nucleotide polymer, a whole different class of compound, and to get there you have to solve the sugar problem and several others. There are four different classes of compound that living things are made of, and none of them have been solved. Miller and Urey looked at the building blocks of the building blocks, and that was a mess.

Meyer completes the chain: and then you have to link the building blocks, and then you have to sequence them properly. Tour, flatly: they do not want to link.

From a blob of jelly to written instructions

Robinson grants all of that and states the historical shift, which is the point he actually wants on the record. Back in the days of Charles Darwin, the general assumption about the single cell was that it was a simple form of life. A vague notion of a little blob of jelly. And now we look inside every one of those cells and it is as though we find a code, or written instructions, two meters long.

Tour corrects the detail, two meters is the human figure and a simple cell is shorter, but pushes past the correction to the substance. It is so much more complex than you are thinking. So much more. Look into the cell next year and you will see more that has to be solved to get the simplest of cells to work.

And even taking the simplest thing we can, something like a bacterium, there are so many layers of communication that have to be in place. It is not a matter of taking all those classes of compound and throwing them into a lipid membrane.

Which is where he reaches for the analogy of the hour: "That would be like saying I could take all the parts of the engine of my car, take them all apart, and throw them into the passenger compartment, and if I just wait long enough and shake it long enough, that engine would assemble, mount itself, and everything would start working again. Nobody would think that. That's exactly what you're saying if you had all the pieces."

"These are crazy. I want to talk to somebody reasonable."

Robinson, playing the room, turns to Lennox for the moderate position and instead gets the mathematician's version of the same argument. His question is the standard one: the universe is billions of years old, thirteen point eight billion years is a long time.

Lennox says it is not a long time, not when you weigh it against the improbability of the thing you are asking it to do. And what really gets to him is the character of the object. You talk about this thing a couple of meters long, but it is information of an exceedingly complex linguistic kind. And language does not get generated by natural processes.

Robinson: it is language. Meyer: it is code. Lennox: it is language, information, code. What Miller and Urey discovered was a couple of letters. And once the DNA was decoded, it became clear that the letters are valueless unless they are in the right order.

Then the arithmetic that makes the deep time answer collapse for him: you can have 13.8 billion years, you can have 138 billion years, you can have 1,380 billion years, and you are not coming close, because it is in the nature of the thing that you do not get language like complexity out of natural processes.

The biggest chicken and egg problem there is

Lennox adds the circularity. You need a living cell to get DNA, and you need DNA to get a living cell. You are in the biggest of all chicken and egg problems.

Robinson asks about top down causation, a phrase Lennox has just used, and Lennox explains it as a matter of levels: you need the cell first to manufacture the things the cell is made of, and you have levels of complexity stacked from the basic DNA up through epigenetics and the folding of proteins. In systems biology now, he says, they are concentrating on the fact that there is a great deal of top down causation in this field. In Darwin's day and even later, at Miller and Urey, they had not the faintest clue of the nature of what they were dealing with.

Trace the information back and you find a mind

Robinson draws the conclusion the panel wants: so we are stuck. If there is a code, they are pointing in a different direction.

Meyer takes it and states the positive case, which is the heart of his own work. Whenever we see information and we trace it back to its source, we always come to a mind.

He runs the examples. Bill Gates has said DNA is like a software program. Richard Dawkins has acknowledged that it is machine code. Whenever we see a software program we know it came from a programmer. Whenever we see information, whether in software, a hieroglyphic inscription, a paragraph in a book, or information embedded in a radio signal, and we trace it back to its ultimate source, we always come to a mind, not a material process.

So Tour has brilliantly shown how inadequate undirected chemical evolutionary theories are. The flip side, says Meyer, is a positive case that a designing mind played a decisive role in the origin of life, because information is a mind product.

Time is the enemy

Robinson, honest about where he is: his little mind is struggling, because the answer he grew up with, and it now sounds like an intellectual loophole, was always just more time. All we need is more time for the random accidents to happen.

Tour takes the loophole away with chemistry, and this is the most quantitative thing he says all hour. Time is the enemy, not the savior.

As soon as you have these molecules they start to degrade. Put something valuable outside and it rusts. One molecule of RNA, on its own, lasts hours. Hours, and it is degraded. Proteins last on the order of days. That is it. So if you wait billions of years, what you have is degraded.

The verdict

Robinson asks the summary question. The idea that the universe came about by totally undirected, impersonal forces, all three of you would consider that what?

Meyer: implausible. Tour: preposterous. Preposterous. Lennox: implausible in the extreme.

Why they get roughed up

Robinson changes register and asks the social question: why do all three of you get roughed up by your colleagues? He has done the homework and he reads the receipts out loud.

For Tour: a debate with a YouTuber named Dave Farina, who considers himself a science influencer or explainer. The panel plays a clip in which Tour hands Farina a paper by Jack Szostak, the Nobel laureate, and asks him to read the title, noting that Szostak himself says he cannot get it. Farina's line about Tour's work, quoted by Robinson: it "only serves to keep indoctrinated buffoons in their blind faith." Robinson, dryly: that is not a very nice thing to say.

For Meyer: Charles Marshall's review of Darwin's Doubt, published in Science, one of the two or three most esteemed journals there are. "The book's subtext is to provide solace to those who feel their faith undermined by secular society and by science in particular. Meyer's selective scholarship appears driven by his deep belief in an explicit role of an intelligent designer in the history of life."

Lennox answers for all three, and his answer is about the shape of the objections rather than their content. The reason for those quotes is that the people who wrote them do not take the scientific arguments seriously, and in doing so they exemplify exactly what they are accusing Tour and Meyer of. They will not get down into the argument. They are not able to defend it intellectually, so they go ad hominem.

Tour's standing challenge

Lennox notes that Tour and Meyer have both issued open challenges to materialists to bring evidence and real argument, and asks Tour how that has gone.

Tour's answer is precise about who he is asking. The YouTuber does not have the capacity to understand the science. So he has challenged PhD chemists and biochemists to engage with him, openly, on his YouTube channel, and others have reached out on his behalf. Neutral channel, their channel, he does not care. Because the chemist can understand what he is talking about and the YouTubers cannot.

And when he goes to the people who do understand, they will not engage. "Their silence says it all, because no answer is an answer in itself." They see exactly what he sees. What he is bringing forth is quite obvious to a working scientist.

Robinson checks the claim: any working chemist knows what you are talking about? Any working synthetic chemist, any organic chemist, anybody who has worked with molecules. They know exactly what he is talking about, so they do not touch it. As far as the science goes, he says, nobody is going to contest what he says. The more fundamental question is why.

The Cambrian, and "fair comment"

Meyer takes the same point into paleontology, and gives his critic credit while he does it. Marshall, to his credit, did do an extensive debate with Meyer, and it is online.

The subject was the origin of the Cambrian animals, the so called Cambrian explosion, which is an explosion of biological form in the fossil record. Meyer's claim is that before an explosion of form there would have to be an explosion of information. Marshall proposed that there might have been pre Cambrian organisms that simply did not show up in the fossil record. Meyer's reply was: yes, but to build them you would still require the information. The information problem is still fundamental.

Marshall's comment at that point in the debate was two words: "Fair comment."

That, says Meyer, is why he treats the problem as unsolved by evolutionary theory, biological or chemical. And information, to reiterate Lennox's point, is produced by one particular type of cause that we all know: an intelligent mind. And at the foundation of life we find information encoded in DNA and expressed in complex information processing systems. Absolutely exquisite.

Robinson, thinking out loud, tries a formulation: if information precedes new biological form, is it something like saying the new form must be imagined before it comes into being? Meyer accepts the direction while trimming the word species off it. Fundamental new forms of life require information. We know information comes from a mind. So when we see these explosions of new form, he thinks we are seeing evidence of the activity of a designing mind.

Something is shifting

Robinson has a longitudinal data point of his own, from his own comment sections.

Back in 2019 he recorded a show with Meyer, David Berlinski and David Gelernter on the mathematical challenges to neo Darwinism, and the YouTube comments were scathing. Why are you wasting your time with these cranks. In 2023 he recorded another show with Meyer, Lennox and Michael Behe on a similar topic, and the tone of the comments was completely different. Does the panel feel a change in the way they are received? Is it generational?

Meyer does not know whether it is generational, but something is shifting very fast.

Lennox supplies the inside evidence. At Oxford there is a brilliant scientist, Denis Noble, a Fellow of the Royal Society, widely regarded as the father of systems biology, who is on record saying that neo Darwinism does not need to be refined, it now needs to be completely replaced. And there are other leading biologists saying similar things. Many of them are still quite materialistic, but they have given up on the old framework, while the general public hangs in with the old stuff because they have never heard any of this.

Tour's version is about the literature. The papers are certainly being written differently, in that origin of life researchers are no longer making the gross extrapolations from a very small piece of data that they used to make. But the press still hypes it up, and the origin of life scientists are responsible for a good deal of that, because when the press asks did we get this right, the extrapolations come back. So it is still in the textbooks. The conversation is beginning to change, but slowly.

Seeing the cell move

Meyer notes that they have been talking about the complexity of the cell descriptively and a bit abstractly, and that one of the most helpful things is to actually watch an animation of digital code in the DNA directing the construction of the proteins and the protein machines that keep us alive. The clip of Tour they showed from The Story of Everything comes right after an animation that does exactly that. Without a PhD in molecular biology, that is how a person gets a handle on the subject.

Tour will not let even the animation stand as a partial victory. That animation is one of a million animated things happening in a cell. You cannot just solve that one. There are so many other pieces that need to be solved to have life. Robinson: wheels within wheels within wheels of complexity.

The EXIT sign

Lennox then reframes the whole disagreement as one about perception, and it is the cleanest argument he makes.

You quoted the psalm at the beginning, he says. The heavens declare. That is perception. And the response that a mind is behind this is usually a matter of perception.

If you see the word EXIT above a door, it is four letters. Very simple. But you immediately know that whatever processes were used to make that sign, there is a mind behind it. Why? Because it conveys meaning.

Now take the three point some billion letters in a strand of DNA. Many of his scientific colleagues look at that and say: chance and necessity. They would never dream of doing that with the word EXIT.

Gratuitous beauty, and Mozart

One more clip from the documentary, and it introduces a problem Robinson has not heard of. There is a big problem in evolutionary biology called the problem of gratuitous beauty. Many organisms have beauty beyond anything relevant to their survival value.

Meyer explains it. Organisms have a beauty that does not in any way help them in the Darwinian competition for survival. It is unnecessary to account for why they survived. It is just there.

His example is personal. He loves tropical fish and loves to snorkel in Hawaii. Look at the patterns on the Hawaiian triggerfish. There is one actually called the Picasso triggerfish, so beautifully painted. All these patterns and designs that seem to have nothing to do with whether the animal survives. Some of them are so brightly colored they are almost saying come eat me, eat me. They are not helping in the process of survival. They suggest, he says, that perhaps the creator was not only a good software programmer but also a great artist.

Lennox extends the list: you can say the same about mathematics, and art, and music. Not necessary for survival.

Which gives Robinson his best question of the hour, because of where they are sitting. Here we are in Salzburg, the hometown of Mozart. If you were a Darwinist, how do you explain the evolutionary process that produces Mozart?

Lennox: "Very badly."

Robinson will not let him off. Come on, do your best. If you were forced to argue for the other side, what would you say?

Lennox gives the steelman and then dismantles it in the same breath. You must say that if there is no God behind this universe, then it must have happened gradually, through infinitesimal steps over a long period of time. And you must say that because you are driven by your worldview. It has nothing to do with science or observation. It is the only logical solution available to you. That has always been a big problem for him: sitting with an atheist hat on, you are forced into it.

Robinson: and that is not scientific. Lennox: no, it is simply your belief system.

How far can the science take you?

Robinson signals the turn: thank you for the seminar, now the personal reflections. And he frames the question with Isaac Newton, from the General Scholium that concludes the Principia: "This most beautiful system of the sun, planets, and comets could only proceed from the counsel and dominion of an intelligent and powerful being."

Intelligent, powerful, got it. But can we get from the science to a being who is in any way loving or merciful? Can science get us to God as many religions describe him? Or do we have to say no, intelligent design is a very limited finding, that information is necessary for certain processes we observe, that information comes from minds, and that is as far as we are going.

It is the sharpest question of the hour, because it asks the panel to police its own boundary.

Lennox: the two books

Lennox answers with a distinction rather than a stretch.

His initial reaction is the one the Apostle Paul makes: looking at the world and the universe, we can reasonably conclude there is an intelligent mind behind it. We have intelligent minds after all, and the world shows a beauty that points beyond itself.

But then you come to a completely different source of knowledge. Going back to Francis Bacon, often called the father of science, who spoke of two books: God has given us the book of nature and the book of revelation. And it seems perfectly logical to Lennox that if the science points toward an intelligence, the logical next question is whether that intelligence has revealed itself.

His analogy is about persons. When it comes to getting to know Peter Robinson, he says, I could analyze your brain waves, I could put you in an MRI scanner, and I will never get to know you unless you reveal yourself to me. And when you reveal yourself, usually in speech, my mind keeps working. I reason, and I see whether what you are saying makes sense.

So the analogy holds. God claims to have revealed himself in his word and in Christ, and we do not stop our rational processes when we come to that revelation. We need our minds to read it and understand it. It is when those two worlds come together, plus our own personal experience as persons responding to all of this, that the cumulative effect produces a man sitting at this table as a convinced Christian and a person convinced of the value of science.

Note what the answer concedes. Science gets you to a creator. It does not get you to a loving one. For that, Lennox says, you need a second source.

Tour: God stays out of the papers

Robinson asks Tour a related question with a sharper edge. In the documentary it is Tour's voice saying that in earlier times Galileo, Kepler and Newton took for granted, as humankind seems to have done for millennia, that there was a creator. Can a scientist in 2025 talk that way? Or do you have to be careful and stop at "here is the evidence"?

Tour draws the line himself and does not resent it. When he writes scientific papers, he looks at the evidence and reports on it. There are things they are excluded from writing. They might make extrapolations, but no, he does not bring God into the scientific papers. Robinson: and that is where it should be. Tour: that is the way it should be, and I am fine with that.

Then he says what he does see, and it is a different argument from the three the show was built on. What you see in nature is regularity. It does not have to be this way, but it is this way. And that, for him, is how we know we have a God with consistency and purpose. Parents who are consistent with their children are usually much better parents, and consistency is what children long for. It is not that Poseidon is angry today and that is why we have wind. He is not a capricious God.

The regularity is what makes science possible in the first place: I can study something in a plant and expect similar behavior in an animal, I can see the consistency of how molecules work, I can run the experiment in Austria and run it in Houston, Texas and get the same result. It did not have to be that way, but it is.

What Tour sees when he looks at a leaf

Then comes the most personal passage of the hour, and it is worth having in full because it is Tour describing the aesthetic payoff of technical training.

I see so much more than what you can see, he tells Robinson. If I look at a leaf, I know that in that leaf there is a magnesium atom sitting in the middle of a porphyrin, which is four nitrogen atoms sitting there. And there is a funnel where light can come in, and that light hits the magnesium atom and ejects an electron. That starts the photosynthesis process, which is what lets the plant take up carbon dioxide, release oxygen, take that carbon and make it part of the tree.

And I know why the colors are changing here in autumn. Because you have chlorophyll, and the number of double bonds is beginning to get oxidized, and they are changing.

So you see a beauty to God, when you get into the sciences, that the common person cannot see. And he sees all of it as soon as he looks at the leaf, in his mind's eye, because he has studied it at the molecular level. That gives him a greater appreciation.

Meyer: two kinds of science

Robinson turns to Meyer with the methodological version of the same question, because Meyer is the one going further: he wants to bring the notion of an intelligent mind into science itself.

Meyer's answer is a distinction between two kinds of scientific question.

There is the science Tour does, studying the regularities of nature at the bench, doing experiments with chemistry and nanotechnology. If you ask what nature ordinarily does, the answer will necessarily be rendered in terms of material processes, because that is what the question is about.

But if you ask a different question, where did this or that feature of the universe or of life come from in the first place, then the answer is not fixed in advance. It might be that life, or the digital code inside it, is the product of undirected material processes. Another possibility is that the information in the cell, or its machinery, or its information processing system, resulted from the activity of a designing mind.

And there, says Meyer, we need a different kind of science: the historical sciences, which bring our knowledge of cause and effect in the present to bear on reconstructing what most likely happened in the past. Because we know from our knowledge of cause and effect that it takes a mind to generate specified or functional information, when we find functional information embedded in a molecule, and we know it is necessary to produce life, we can infer that a mind played a role in the origin of life. That, he says, is a perfectly legitimate thing to do.

The opposite move, and this is the part he is arguing against, is to say: I have all this information about what life is made of, now I will ask how it originated, but since I am a scientist I must limit myself to strictly materialistic explanations for everything. In that case you might miss the right answer, because you might be looking at something that is not produced by material processes but which in our experience is always produced by a designing mind.

Lennox: information is not material, and that is the end of it

Lennox adds the sentence that, for him, settles it.

"What kills materialism for me is that information itself is not material. And that's the end of it."

Science itself, he says, has shown us in this information age that information is an immaterial quantity, not reducible to physics and chemistry. And if we are going to study it at all, we have got to widen our definition of reality.

Tour buys it immediately and takes it to scripture. Information is not material, and we see this in the text: "In the beginning was the Word." That is information. And the Word was with God, and the Word was God. This starts with information right here. And then that Word became flesh and dwelt among us, and we saw his glory, glory as of the only begotten from the Father, full of grace and truth. The Word took on the material. It starts with information, always starts with information, which itself is immaterial.

Meyer supplies the version from the film: Tour has a riff where he says we are asking the wrong question, that we need to ask about the origin of the code, not just the origin of the molecules. The origin of the code that is stored in the molecules. That is the real question.

Mind first, or mass energy first

Lennox then states the actual disagreement at the bottom of everything, and it is the best summary of the hour that anyone at the table produces.

The materialistic understanding of the universe starts with mass energy, or with nothing at all, and builds up by unguided material processes to produce information as an end product. The worldview the panel is defending is the exact opposite: mind is primary, and the mass energy of the universe is derivative.

There is a colossal clash there, and it is where he thinks the so called clash between science and religion actually lives. It is not a clash between science and God. It is two diametrically opposed worldviews.

His test case is the Nobel Prize in physics. Many atheists have won it. Christians have won it. Their science does not divide them. Their worldview does.

The closing question: Bertrand Russell

Robinson began with Dawkins and Psalm 19, which were about the nature of the universe. He closes with a question about the nature of man, and he chooses the most eloquent statement of the materialist position in the English language.

The passage comes from Bertrand Russell. Robinson dates it 1907, when it still seemed brave and new and fresh to say such a thing. The newness is gone, he says, but the worldview lingers, and if not dominant in the American academy, it remains present.

Lennox, before the quotation is even read: "I feared so."

Robinson does not want a rebuttal to Russell, who has been dead since 1970 something or other. He wants to know how each of them would answer a student, a kid at Rice or a kid at Oxford, who reads this and thinks it is the worldview all the really cool professors have.

"That man is the product of causes which had no prevision of the end they were achieving. That his origin, his growth, his hopes and fears, his loves and beliefs are but the outcome of accidental collocations of atoms. And that the whole temple of man's achievement must inevitably be buried beneath the debris of a universe in ruins. All these things, if not quite beyond dispute, are yet so nearly certain that no philosophy which rejects them can hope to stand."

Tour: what is the measurement?

Tour answers as an experimentalist, in two sentences, and does not elaborate.

How do you know that? How can you know that? Tell me what the measurement is that allows you to know that. And it would wither immediately. There is no evidence that could show that.

Lennox: it is self refuting

Lennox answers as a logician, and reaches back to his teacher.

That statement, as his teacher of quantum mechanics Sir John Polkinghorne pointed out, is self refuting. If it were true, we could not possibly know it. It reduces thought to the random motions of atoms, and so it dissolves thought. What Russell is saying is sheer self contradictory nonsense.

Then the anecdote. When Lennox was at Cambridge he saw a book in a shop window, Why I Am Not a Christian by Bertrand Russell. He walked up and down outside wondering whether he dared read it. He read it, and it confirmed his Christianity, because it seemed to him that Russell had never begun to understand what the message of Christianity or biblical theism actually was.

Meyer: worldviews are testable too

Meyer asks to segue from Russell back to the opening Dawkins quotation, because they are the same claim, and in closing the loop he states the panel's whole method.

Dawkins said the universe we observe has exactly the properties we should expect if at bottom there is no design, no purpose, nothing but blind pitiless indifference. Meyer calls it a wonderful quote, because it concedes something important: it suggests that metaphysical systems of thought, worldviews, are as testable by looking at the world as scientific hypotheses are.

And the argument the panel has been making, the argument the film makes, is that the big discoveries of twentieth and twenty first century science are not at all what you would expect from a materialistic point of view.

Materialists expected an infinitely old universe that never had a beginning. We discovered that the universe had a beginning. They did not expect the universe to be finely tuned against all odds to allow for the possibility of life, and when Hoyle discovered it, it shocked him out of his atheism. Nobody expected the digital nanotechnology found inside cells. Even Dawkins, Meyer notes, was recently quoted saying he was knocked sideways with wonder on seeing an animation of the DNA information processing system rendered by an Australian group.

All of it, the complexity of the cell, the fine tuning of the universe, and its origin a finite time ago, is completely unexpected from a materialistic point of view. And all of it is exactly what you would expect from a theistic one.

Robinson closes it out. "Stephen Meyer, Jim Tour, and John Lennox, thank you, gentlemen. For Uncommon Knowledge, the Hoover Institution, and Fox Nation, I'm Peter Robinson."

The dates the panel leans on

Almost every argument in the hour is anchored to a specific discovery, and the panel's case depends on the order those discoveries arrived in. Here is the spine, assembled from what they cite.

Key takeaways

• The panel's case is one argument told three times. Meyer, Lennox and Tour each take a different discovery, cosmological, mathematical and chemical, and arrive at the same place: the twentieth century found things a materialist starting point does not predict.
• The cosmological argument is about causation, not chronology. Meyer's version is not "everything needs a cause." It is that if space, time and energy begin a finite time ago, there is no matter available to do the causing, so a materialistic explanation of the origin of matter is not available in principle.
• Fine tuning is the part the panel treats as settled science. They do not argue the numbers, they argue that nobody has an explanation for them that works. Meyer's hard number is the cosmological constant at one part in ten to the ninetieth. Lennox's is Penrose's estimate, so large it cannot be written out with one digit per particle in the universe.
• Tour's objection is about the product mixture, not the principle. Miller and Urey did make amino acids. His complaint is that they made mostly other things, that the amino acids decompose via the Maillard reaction, that the simplest ones dominate, that nothing had chirality, and that amino acids are one of four unsolved classes of biomolecule.
• The receding target is the load bearing claim. Progress in origin of life research is real but the measured complexity of the cell grows faster, so the distance to the target increases. That is why Tour tells students joining these groups to be prepared to die of old age.
• Time is presented as a liability, not a resource. A free RNA molecule lasts hours, a protein days. Deep time does not help a process whose reagents fall apart in the interval.
• Lennox's sharpest move is definitional. Information is immaterial, therefore not reducible to physics and chemistry, therefore materialism is incomplete before you get to any specific evidence. The EXIT sign is his illustration: four letters that nobody would attribute to chance, against three billion letters that many people do.
• Meyer's method is the historical sciences. He is not proposing to insert design into bench chemistry. He is proposing that questions about origins are answered by inference to the best explanation from known causal powers, and that the only known cause of functional information is a mind.
• They mark their own boundary. Asked whether science gets you to a loving God, all three say no. Lennox invokes Bacon's two books and says you need revelation. Tour says God stays out of his papers and he is fine with that.
• The panel thinks the reception is changing. Denis Noble calling for neo Darwinism to be replaced, origin of life papers written with fewer extrapolations, and comment sections that went from "cranks" in 2019 to something else in 2023.

Where it stands

The conversation above is rebuilt as the three men argue it. This section is the separate question of how those arguments sit relative to mainstream science, because the page would be less useful without it.

What is uncontroversial. The beginning of the universe is standard cosmology, not a fringe claim. Red shift, the microwave background and the singularity theorems are textbook. Fine tuning is likewise a genuine and widely acknowledged puzzle; physicists who reject every theological reading of it still write papers about why the constants sit where they do. And the complexity of the cell is not in dispute at all. The panel is on solid ground when it says the twentieth century surprised people.

Where the mainstream diverges on cosmology. The Borde, Guth and Vilenkin theorem shows that inflationary spacetimes with average expansion greater than zero are past incomplete. It is a real result and Lennox represents it fairly. But Guth himself does not draw a theistic conclusion from it, Vilenkin has been careful about what "beginning" means at the boundary, and there are contested proposals, cyclic and bouncing models among them, that try to get around it. Meyer's step from "no matter existed to do the causing" to "a transcendent mind" is a philosophical argument, and a respectable one with a long history, but it is not a result physics hands you.

On Penrose's number. The figure Lennox cites is real and it is Penrose's, but its meaning is narrower than the phrasing suggests. It measures the improbability of the universe's exceptionally low initial entropy, expressed as a fraction of phase space volume. Penrose is not a theist and does not use it as a design argument. He uses it to motivate his own cosmological proposals. The panel quotes his "creator's aim" wording accurately and reads it in a direction he does not.

On the multiverse. Lennox says there is no explanation for fine tuning that works apart from the God hypothesis. That is a judgment, not a consensus. The mainstream competitor is a multiverse plus anthropic selection, and its defenders regard it as a live physical hypothesis with independent motivation from inflation and string theory landscapes. Critics inside physics call it untestable. The panel does not engage it here beyond the Sagan clip.

On origin of life. Tour's specific chemical complaints, low yields, cross reactions, the Maillard problem, racemic products, the difficulty of getting sugars and of linking and sequencing polymers, are taken seriously by chemists, including by people who reject his conclusion. What is contested is the inference. Researchers such as Jack Szostak, John Sutherland and Ramanathan Krishnamurthy argue that the field has made real progress, the 2009 Powner and Sutherland route to pyrimidine ribonucleotides being the usual example, and that "we have not solved it" is not the same as "it cannot be solved." Critics call the move from an unsolved chemistry problem to a designing mind an argument from ignorance. Meyer's answer, given in the conversation, is that it is not an argument from ignorance but an inference to the best explanation from a known causal power. That exchange is the actual disagreement, and this conversation only presents one side of it.

On intelligent design's standing. Intelligent design is not accepted as science by the major scientific bodies. The National Academy of Sciences and the AAAS have both characterized it as outside science, and Kitzmiller v. Dover in 2005 ruled it religious for public school purposes. Meyer's framing as a historical science is his answer to that, and it is worth understanding on its own terms, but a reader should know the position the panel is arguing from is a minority one in professional science, not a suppressed consensus.

On "information is immaterial." This is a philosophical claim doing a lot of load bearing work. Shannon information is defined over physical configurations, and mainstream biology treats DNA sequence as physically instantiated and physically caused. Lennox's stronger claim, that semantic information is not reducible to physics, is a real position in philosophy of mind with serious defenders and serious opponents. It is not, as stated at the table, something science has shown.

On gratuitous beauty. Standard biology has an answer that the segment does not mention: sexual selection accounts for a great deal of ornament, and bright coloration in reef fish is often aposematic, meaning it advertises toxicity or unpalatability, or serves species recognition on a crowded reef. Whether that fully explains the Picasso triggerfish is a fair question. It is not an unexplained anomaly in the way the exchange implies.

On the tone. Robinson does the panel a service by reading the hostile quotations out loud, and Lennox is right that ad hominem is not an argument. It is also true that the panel spends more time on how it is treated than on the strongest technical replies to its claims, and that no working origin of life researcher or cosmologist is at the table to give them.

Chapters

The Hoover Institution did not publish chapter markers for this episode, so the labels and timestamps below are mine, estimated from position in the transcript. They are close, not exact, and they are clickable.

• 0:00 Cold open: accident, or intention?
• 0:20 Salzburg, and who is at the table
• 1:15 Two quotations: Dawkins in 1995 against Psalm 19
• 3:03 Development one, the Big Bang
• 3:44 Sagan: if the universe was always here, there is nothing for a creator to do
• 4:00 The taxi ride, 1927: Lemaitre confronts Einstein
• 5:43 Red shift explained: prisms, ship horns and train whistles
• 6:40 Hubble at Mount Wilson, and running the expansion backwards
• 7:42 Hawking's 1966 singularity theorem
• 8:37 Borde, Guth, Vilenkin and the Kalam argument
• 9:17 Lennox and the heckling physicist
• 10:20 Aristotle, an eternal universe, and the establishment that resisted
• 10:31 Is a beginning an empirical finding?
• 11:02 1964, the cosmic microwave background as a second line of evidence
• 11:37 Meyer's second pass at Hawking: curvature running backward
• 13:10 No matter to do the causing
• 13:55 Development two, fine tuning
• 14:40 The cosmological constant at one part in ten to the ninetieth
• 15:31 Polkinghorne's universe creating machine and its several dozen knobs
• 16:37 Tour: change the dipole moment of water and chemistry dies
• 17:12 Hoyle's carbon resonance, and the atheism it shook
• 17:43 Penrose's number, and why you cannot write it out
• 18:44 A super intellect has monkeyed with physics
• 19:17 Development three, the information enigma
• 19:30 Interlude: mites on a plum
• 20:27 Robinson's ninth grade textbook and the Miller and Urey experiment
• 21:24 What was actually in the flask: the Maillard reaction and no chirality
• 22:39 Seventy years later, why nobody has built a cell
• 22:52 The receding target
• 23:30 Be prepared to die of old age
• 23:56 We have absolutely no idea where life comes from
• 24:20 The credentials, read out loud
• 25:04 The irony of 1953: Watson, Crick and digital code
• 26:04 Two meters of DNA in every human cell
• 26:32 Four unsolved classes of compound
• 27:16 From Darwin's blob of jelly to written instructions
• 28:18 The car engine in the passenger compartment
• 29:00 "13.8 billion years is a long time." Lennox: no it is not
• 29:24 Language does not come from natural processes
• 30:06 The chicken and egg, and top down causation
• 31:16 Trace information back and you always find a mind
• 32:16 Robinson's loophole: all we need is more time
• 32:42 Time is the enemy, not the savior
• 33:22 The verdict: implausible, preposterous, implausible in the extreme
• 33:39 Why they get roughed up: Dave Farina and Jack Szostak's paper
• 34:28 Charles Marshall's review of Darwin's Doubt in Science
• 35:00 Lennox on ad hominem
• 35:40 Tour's open challenge to PhD chemists, and their silence
• 36:53 The Cambrian explosion and Marshall's "fair comment"
• 38:19 Must a new form be imagined before it exists?
• 39:03 2019 versus 2023: the comment sections changed
• 39:47 Denis Noble says neo Darwinism must be replaced
• 40:36 The papers changed, the press did not
• 41:15 Watching the cell work, and why one animation is not enough
• 42:14 Lennox and the EXIT sign
• 42:58 The problem of gratuitous beauty
• 43:16 The Picasso triggerfish, and a creator who is also an artist
• 44:24 In Mozart's hometown: explain Mozart
• 45:28 Newton's General Scholium, and how far science can take you
• 46:45 Lennox: Bacon's two books, and why revelation is a different source
• 48:30 Tour: God stays out of the papers, and the point of regularity
• 50:27 What Tour sees when he looks at a leaf
• 51:28 Meyer on the historical sciences and the two kinds of question
• 54:06 Lennox: information is immaterial, and that kills materialism
• 54:42 Tour: in the beginning was the Word
• 55:19 The origin of the code, not the origin of the molecules
• 55:39 Mind first or mass energy first, and the Nobel Prize test
• 56:34 The closing question: Bertrand Russell, 1907
• 58:26 Tour: what is the measurement that lets you know that?
• 58:46 Lennox: it is self refuting, and the book in the Cambridge window
• 59:34 Meyer closes: worldviews are testable by looking at the world
• 61:20 Sign off

Notable quotes

"Your mathematics is impeccable, but your physical intuition is abominable." Einstein to Lemaitre in the taxi, as Stephen Meyer tells it, 4:40

"Look, Professor Lennox, you are not saying to us, are you, that you believe that the first statement of Genesis has any relevance for us today?" The heckling physicist, quoted by John Lennox, 9:40

"If space, time, and energy begin at a finite time ago, then before that or independent of that, there is no matter to do the causing. So you can't have a materialistic explanation for the origin of matter itself." Stephen Meyer, 13:10

"Everything in chemistry is balanced perfectly for us to have life." James Tour, on the dipole moment of water, 16:50

"Nothing shook my atheism like that discovery." Fred Hoyle on the carbon resonance, quoted by John Lennox, who was his student, 17:25

"A common sense interpretation of the evidence suggests that a super intellect has monkeyed with physics." Fred Hoyle, quoted by Stephen Meyer, 18:50

"All the origin of life researchers will die of old age before this is discovered. Their students will die of old age, and their students' students will die of old age. So when you join one of these research groups, be prepared to die of old age without solving this." James Tour, 23:30

"We have absolutely no idea where life comes from. None whatsoever." James Tour, 23:56

"That would be like saying I could take all the parts of the engine of my car, take them all apart, and throw them into the passenger compartment, and if I just wait long enough and shake it long enough, that engine would assemble, mount itself, and everything would start working again. Nobody would think that." James Tour, 28:30

"You can have 13.8 billion years. You can have 138 billion years. You can have 1,380 billion years. You're not coming close, because it's in the nature of the thing that you do not get language like complexity through natural processes." John Lennox, 29:40

"Whenever we see information and we trace it back to its source, we always come to a mind." Stephen Meyer, 31:20

"This element of time is actually the enemy and not the savior of this process." James Tour, 32:50

"Their silence says it all, because no answer is an answer in itself." James Tour, on the chemists who will not debate him, 36:20

"You take the three point whatever billion letters in a DNA strand, and many of my scientific colleagues just look at it and say, chance and necessity. They'd never dream of doing that with the word exit." John Lennox, 42:30

"Very badly." John Lennox, asked how a Darwinist explains Mozart, 44:40

"I could put you and analyze your brain waves, I could MRI scan you, I'll never get to know you unless you reveal yourself to me." John Lennox, on why science stops short of a personal God, 47:40

"I see so much more than what you can see. So if I look at a leaf, I know in that leaf there's this magnesium atom sitting in the middle of a porphyrin." James Tour, 50:30

"What kills materialism for me is that information itself is not material. And that's the end of it." John Lennox, 54:10

"It starts with information. Always starts with information, which itself is immaterial." James Tour, 55:10

"Take the Nobel Prize for physics. Many atheists have won it, Christians have won it. Their science doesn't divide them, but their worldview does." John Lennox, 56:15

"How do you know that? How can you know that? Tell me, what's the measurement that allows you to know that? And it would wither immediately." James Tour, answering Bertrand Russell, 58:30

"That statement is self refuting. If it was true, we couldn't possibly know it." John Lennox, citing Sir John Polkinghorne on Russell, 58:50

"The big discoveries of twentieth and twenty first century science are not at all what you would expect from a materialistic point of view." Stephen Meyer, closing, 60:10

Resources mentioned

The show and the film

• Uncommon Knowledge, the Hoover Institution interview program hosted by Peter Robinson, recorded here in Salzburg, Austria
• The Story of Everything, the documentary every clip is drawn from, written by Stephen Meyer and directed by Eric Esau, released through Fathom Entertainment on April 30th

The panelists and their books

• Stephen C. Meyer, director of the Discovery Institute Center for Science and Culture. Books cited in the conversation: The Return of the God Hypothesis, Darwin's Doubt, and Signature in the Cell, the source of the phrase "the information enigma"
• John Lennox, Emeritus Professor of Mathematics at the University of Oxford and president of the Oxford Centre for Christian Apologetics. Most recent book: God, AI and the End of History
• James Tour, W. F. Chao Professor of Chemistry at Rice University, with more than 130 patents. Most recent book: the expanded The Mystery of Life's Origin. His origin of life videos and open challenges live on his YouTube channel

Texts quoted

• Richard Dawkins, River Out of Eden (1995), the "no design, no purpose, nothing but pitiless indifference" passage that opens and closes the show
• Psalm 19 and Genesis 1, and John 1, which Tour recites from memory
• Bertrand Russell, the "accidental collocations of atoms" passage. Robinson dates it 1907; it is from the essay A Free Man's Worship, first published in 1903. Lennox also discusses Russell's Why I Am Not a Christian
• Isaac Newton, the General Scholium that concludes the Principia
• Roger Penrose, the "creator's aim" passage, from The Emperor's New Mind
• Francis Bacon on the two books, nature and revelation

Scientists and results referenced

• Georges Lemaitre and Albert Einstein, the 1927 taxi ride and the static universe term
• Edwin Hubble and Mount Wilson Observatory, the red shift surveys, and Arthur Eddington
• Stephen Hawking and the singularity theorems
• Arvind Borde, Alan Guth and Alexander Vilenkin, and the Kalam cosmological argument Lennox connects it to
• The cosmic microwave background, 1964
• Fred Hoyle and the carbon resonance, and Sir John Polkinghorne, Lennox's teacher, and his universe creating machine
• Stanley Miller and Harold Urey, 1952, and the Maillard reaction that Tour says consumes the products
• James Watson and Francis Crick, 1953, and DNA as digital code
• Jack Szostak, whose paper Tour hands to his opponent in the debate clip
• Charles Marshall and his review of Darwin's Doubt in Science, and the Cambrian explosion they debated
• Denis Noble, Fellow of the Royal Society, on replacing neo Darwinism, and systems biology and top down causation
• Carl Sagan, the "nothing for a creator to do" clip, and the "mites on a plum" passage
• Bill Gates on DNA as a software program
• Dave Farina, the science YouTuber Tour debated
• David Berlinski, David Gelernter and Michael Behe, from Robinson's earlier shows on the same subject in 2019 and 2023
• Charles Darwin, Aristotle, Galileo, Johannes Kepler and Wolfgang Amadeus Mozart, all invoked in passing

Concepts worth a detour

• Fine tuned universe, the cosmological constant and the gravitational constant
• Chirality and chemical polarity, the two chemical facts Tour leans on hardest
• Abiogenesis, the field Tour is describing, and intelligent design, the position Meyer defends
• Photosynthesis, chlorophyll and porphyrin, the machinery Tour sees when he looks at a leaf
• Kitzmiller v. Dover (2005), the legal ruling that shapes how intelligent design is received in the United States