Tag Archives: Big Bang

Three ways that the progress of science conflicts with naturalistic speculations

I just got into a debate with some atheists recently on whether the progress of science is more compatible with theism or atheism. (People who have friended me on Facebook got to see me in action)

I offered the Facebook atheists 3 arguments:

  1. the kalam argument from the origin of the universe
  2. the cosmic fine-tuning (habitability) argument
  3. the argument from information in the first replicator (origin of life)

These arguments are all supported by scientific evidence:

  1. An explanation of 3 of the 6 experimental evidences for the Big Bang cosmology (From an article from Caltech)
  2. Examples of cosmic fine-tuning (there at least 40 examples of cosmic fine-tuning), (From the New Scientist)
  3. Evidence that functional protein sequences are beyond the reach of chance, (from Doug Axe’s JMB article)

They replied to my 3 arguments with 3 points of their own:

  1. Maybe the Big Bang cosmology will be overturned by the Big Crunch/Bounce so that the universe is eternal and has no cause
  2. Maybe there is a multiverse: an infinite number of unobservable, untestable universes which makes our finely-tuned one more probable
  3. Maybe the origin of life could be the result of chance and natural processes

Ever heard any of these?

Below I list some resources to help you to respond to the 3 points from the Facebook atheists.

1) The Big Crunch/Bounce has been disproved theoretically and experimentally.

Theoretically:

Nature 302, 505 – 506 (07 April 1983); doi:10.1038/302505a0

The impossibility of a bouncing universe

ALAN H. GUTH* & MARC SHER†

*Center for Theoretical Physics, Laboratory for Nuclear Science and Department of Physics, Massachusetts Institute of Technology, Cambridge, Massachusetts 02139, USA

†Department of Physics, University of California, Irvine, California 92717, USA

Petrosian1 has recently discussed the possibility that the restoration of symmetry at grand unification in a closed contracting Robertson–Walker universe could slow down and halt the contraction, causing the universe to bounce. He then went on to discuss the possibility that our universe has undergone a series of such bounces. We disagree with this analysis. One of us (M.S.) has already shown2 that if a contracting universe is dominated by radiation, then a bounce is impossible. We will show here two further results: (1) entropy considerations imply that the quantity S (defined in ref. 1 and below), which must decrease by ~1075 to allow the present Universe to bounce, can in fact decrease by no more than a factor of ~2; (2) if the true vacuum state has zero energy density, then a universe which is contracting in its low temperature phase can never complete a phase transition soon enough to cause a bounce.

Experimentally:

The universe is not only expanding, but that expansion appears to be speeding up. And as if that discovery alone weren’t strange enough, it implies that most of the energy in the cosmos is contained in empty space — a concept that Albert Einstein considered but discarded as his “biggest blunder.” The new findings have been recognized as 1998’s top scientific breakthrough by Science magazine.

[…]The flood of findings about the universe’s expansion rate is the result of about 10 years of study, said Saul Perlmutter, team leader of the Supernova Cosmology Project at Lawrence Berkeley National Laboratory.

Perlmutter and others found such a yardstick in a particular kind of exploding star known as a Type 1A supernova. Over the course of several years, the astronomers developed a model to predict how bright such a supernova would appear at any given distance. Astronomers recorded dozens of Type 1A supernovae and anxiously matched them up with redshifts to find out how much the universe’s expansion was slowing down.

To their surprise, the redshift readings indicated that the expansion rate for distant supernovae was lower than the expansion rate for closer supernovae, Perlmutter said. On the largest scale imaginable, the universe’s galaxies appear to be flying away from each other faster and faster as time goes on.

“What we have found is that there is a ‘dark force’ that permeates the universe and that has overcome the force of gravity,” said Nicholas Suntzeff of the Cerro Tololo Inter-American Observatory, who is the co-founder of another group called the High-z Supernova Search Team. “This result is so strange and unexpected that it perhaps is only believable because two independent international groups have found the same effect in their data.”

There has only been one creation of the universe, and the universe will never reverse its expansion, so that it could oscillate eternally. That view is popular, perhaps in part because many people watched videos of Carl Sagan speculating about it in public school classrooms, but all it was was idle naturalistic speculation, (Sagan was a naturalist, and held out hope that science would vindicate naturalism), and has been contradicted by good experimental science. You should be familiar with the 3 evidences for the Big Bang (redshift, light element abundances (helium/hydrogen) and the cosmic microwave background radiation. There are others, (radioactive element abundances, second law of thermodynamics, stellar lifecycle), but those are the big three. Point out how the experimental evidence for the Big Bang has piled up, making the problem even worse for the eternal-universe naturalists. Leave no doubt.

2) The multiverse has not been tested experimentally, it’s pure speculation.

Speculation:

Multiverse thinking or the belief in the existence of parallel universes is more philosophy or science fiction than science. ”Cosmology must seem odd to scientists in other fields”.

George Ellis, a well-known mathematician and cosmologist, who for instance has written a book with Stephen Hawking, is sceptical of the idea that our universe is just another universe among many others.

A few weeks ago, Ellis, professor emeritus of applied mathematics at the University of Cape Town, reviewed Brian Greene’s book The Hidden Reality: Parallel Universes and the Deep Laws of the Cosmos (Knopf/Allen Lane, 2011) in the journal Nature. He is not at all convinced that the multiverse hypothesis is credible: ”Greene is not presenting aspects of a known reality; he is telling of unproven theoretical possibilities.”

According to professor Ellis, there is no evidence of multiverses, they cannot be tested and they are not science.

Ellis is not the only multiverse sceptic in this universe. A few months ago, science writer John Horgan wrote a column in Scientific American, expressing his doubt in multiverses.

When you get into a debate, you must never ever let the other side get away with asserting something they have no evidence for. Call them on it – point out that they have no evidence, and then hammer them with evidence for your point. Pile up cases of fine-tuning on top of each other and continuously point out that they have no experimental evidence for their speculations. Point out that more evidence we get, the more cases of fine-tuning we find, and the tougher the problem gets for naturalists. Leave no doubt.

3) Naturalistic theories for the origin of life have two problems: can’t make the amino acids in an oxydized atmosphere and can’t make protein and DNA sequences by chance in the time available.

Building blocks:

The oxidation state of Hadean magmas and implications for early Earth’s atmosphere

Dustin Trail, E. Bruce Watson & Nicholas D. Tailby

Nature 480, 79–82 (01 December 2011) doi:10.1038/nature10655

[…]These results suggest that outgassing of Earth’s interior later than ~200?Myr into the history of Solar System formation would not have resulted in a reducing atmosphere.

Functional protein sequences:

J Mol Biol. 2004 Aug 27;341(5):1295-315.

Estimating the prevalence of protein sequences adopting functional enzyme folds.

Axe DD.

The Babraham Institute, Structural Biology Unit, Babraham Research Campus, Cambridge CB2 4AT, UK. doug.axe@bbsrc.ac.uk

Proteins employ a wide variety of folds to perform their biological functions. How are these folds first acquired? An important step toward answering this is to obtain an estimate of the overall prevalence of sequences adopting functional folds.

[…]Starting with a weakly functional sequence carrying this signature, clusters of ten side-chains within the fold are replaced randomly, within the boundaries of the signature, and tested for function. The prevalence of low-level function in four such experiments indicates that roughly one in 10(64) signature-consistent sequences forms a working domain. Combined with the estimated prevalence of plausible hydropathic patterns (for any fold) and of relevant folds for particular functions, this implies the overall prevalence of sequences performing a specific function by any domain-sized fold may be as low as 1 in 10(77), adding to the body of evidence that functional folds require highly extraordinary sequences.

So atheists are in double jeopardy here. They don’t have a way to build the Scrabble letters needed for life, and they don’t have a way to form the Scrabble letters into words and sentences. Point out that the more research we do, the tougher the problem gets to solve for naturalists, and the more it looks like an effect of intelligence. Write out the calculations for them. Leave no doubt.

I do think it’s important for Christians to focus more on scientific apologetics and to focus their academic careers in scientific fields. So often I look at Christian blogs, and I see too much G. K. Chesterton and other postmodern stuff. We need to bring the hard science, and stop making excuses about not being able to understand it because it’s too hard. It’s not too hard. Everyone can understand “Who Made God?” by Edgar Andrews – start with that! Then get Lee Strobel’s “The Case for a Creator“. That’s more than enough for the average Christian on science apologetics. We all have to do our best to learn what works. You don’t want to be anti-science like atheists are.

Henry F. Schaefer: Stephen Hawking, the Big Bang and God

This lecture was delivered to an audience of students and faculty at Western Kentucky University in 2009.

Here’s part of a biography of Henry F. Schaefer III:

Henry F. Schaefer III was born in Grand Rapids, Michigan in 1944. He attended public schools in Syracuse (New York), Menlo Park (California), and Grand Rapids (Michigan), graduating from East Grand Rapids High School in 1962. He received his B.S. degree in chemical physics from the Massachusetts Institute of Technology (1966) and Ph.D. degree in chemical physics from Stanford University (1969). For 18 years (1969-1987) he served as a professor of chemistry at the University of California, Berkeley. During the 1979-1980 academic year he was also Wilfred T. Doherty Professor of Chemistry and inaugural Director of the Institute for Theoretical Chemistry at the University of Texas, Austin.

Since 1987 Dr. Schaefer has been Graham Perdue Professor of Chemistry and Director of the Center for Computational Chemistry at the University of Georgia. In 2004 he became Professor of Chemistry, Emeritus, at the University of California at Berkeley. His other academic appointments include Professeur d’Echange at the University of Paris (1977), Gastprofessur at the Eidgenossische Technische Hochshule (ETH), Zurich (1994, 1995, 1997, 2000, 2002, 2004, 2006), and David P. Craig Visiting Professor at the Australian National University (1999). He is the author of more than 1150 scientific publications, the majority appearing in the Journal of Chemical Physics or the Journal of the American Chemical Society.

In February 2004, a total of 300 scientists from 35 countries gathered in Gyeongju, Korea for a six-day conference. The conference was titled “Theory and Applications of Computational Chemistry: A Celebration of 1000 Papers of Professor Henry F. Schaefer III”.

And here are some versions of the MP3:

And here’s a written version of the lecture.

Excerpt:

Stephen Hawking’s bestseller A Brief History of Time is the most popular book about cosmology ever written. The questions cosmology addresses are scientifically and theologically profound. Hawking’s book covers both of these implications.

Cosmology is the study of the universe as a whole–it’s structure, origin and development. I won’t answer all the questions Hawking raises concerning cosmology, but I will try to make comments on many of them. I caution here that you should not confuse cosmology with cosmetology, the art of beautifying the hair, skin, and nails!

Here are some of the questions cosmology seeks to answer (As elsewhere in this lecture, I borrow heavily from astrophysicist Hugh Ross’ excellent books The Fingerprint of God and The Creator and the Cosmos.):

  1. Is the universe finite or infinite in extent and content?
  2. Is it eternal or does it have a beginning?
  3. Was it created? If not, how did it get here? If so, how was this creation accomplished and what can we learn about the agent and events of creation?
  4. Who or what governs the laws and constants of physics? Are such laws the product of chance or have they been designed? How do they relate to the support and development of life?
  5. Is there any knowable existence beyond the known dimensions of the universe?
  6. Is the universe running down irreversibly or will it bounce back?

It’s nice to see that lots of the most famous scientists may not be as antagonistic to theism – and even Christianity! – as we have been led to believe by our know-nothing unionized public school teachers. Yes, real scientists are aware of the implications of the Big Bang and the fine-tuning, and yes, real scientists do adjust their worldviews to account for what science is telling them.

Related posts

Positive arguments for Christian theism

Natalie Wolchover: Will science one day rule out the possibility of atheism?

Here’s an article by Natalie Wolchover on Live Science. (And note that I engaged with people in the comments to that article)

She writes:

Over the past few centuries, science can be said to have gradually chipped away at the traditional grounds for believing in God. Much of what once seemed mysterious — the existence of humanity, the life-bearing perfection of Earth, the workings of the universe — can now be explained by biology, astronomy, physics and other domains of science.

I find this statement odd. We theists think about evidence that has emerged relatively recently that supports theism and we are wondering why anyone is still an atheist in view of the progress of science.

Here is some of the evidence we theists are looking at:

  • the cosmic microwave background radiation
  • the helium/hydrogen abundance predictions
  • the redshift of light from distant galaxies
  • the cosmic fine tuning (constants)
  • the cosmic fine tuning (quantities)
  • the construction of amino acids on the early earth
  • biological information in proteins and DNA
  • sudden origin of phyla Cambrian explosion
  • biological convergence
  • galactic fine-tuning (e.g. – GHZ)
  • circumstellar fine-tuning (e.g. – CHZ)
  • irreducible complexity of molecular machines like the cilium
  • natural limits to biological change (i.e. – the Lenski experiments)
  • genome functionality now rated at 80% or more

We use that evidence to support premises in our arguments. We think that science is moving towards belief in a Creator and Designer. But not our staff writer Natalie Wolchover. She has found a way to save atheism from the progress of science.

The evidence for a beginning of the universe

Let’s take a closer look at what atheists say about the universe:

Gobs of evidence have been collected in favor of the Big Bang model of cosmology, or the notion that the universe expanded from a hot, infinitely dense state to its current cooler, more expansive state over the course of 13.7 billion years. Cosmologists can model what happened from 10^-43 seconds after the Big Bang until now, but the split-second before that remains murky. Some theologians have tried to equate the moment of the Big Bang with the description of the creation of the world found in the Bible and other religious texts; they argue that something — i.e., God — must have initiated the explosive event.

However, in Carroll’s opinion, progress in cosmology will eventually eliminate any perceived need for a Big Bang trigger-puller.

As he explained in a recent article in the “Blackwell Companion to Science and Christianity” (Wiley-Blackwell, 2012), a foremost goal of modern physics is to formulate a working theory that describes the entire universe, from subatomic to astronomical scales, within a single framework. Such a theory, called “quantum gravity,” will necessarily account for what happened at the moment of the Big Bang. Some versions of quantum gravity theory that have been proposed by cosmologists predict that the Big Bang, rather than being the starting point of time, was just “a transitional stage in an eternal universe,” in Carroll’s words. For example, one model holds that the universe acts like a balloon that inflates and deflates over and over under its own steam. If, in fact, time had no beginning, this shuts the book on Genesis.

A speculative quantum gravity model?

Let’s see what the peer-reviewed research says:

At the close of their analysis of Linde’s Chaotic Inflationary Model, Borde and Vilenkin say with respect to Linde’s metaphysical question, “The most promising way to deal with this problem is probably to treat the Universe quantum mechanically and describe it by a wave function rather than by a classical spacetime.”{37} They thereby allude to the last class of models attempting to avoid the initial cosmological singularity which we shall consider, namely, Quantum Gravity Models. Vilenkin and, more famously, James Hartle and Stephen Hawking have proposed models of the universe which Vilenkin candidly calls exercises in “metaphysical cosmology.”{38}In his best-selling popularization of his theory, Hawking even reveals an explicitly theological orientation. He concedes that on the Standard Model one could legitimately identify the Big Bang singularity as the instant at which God created the universe.{39} Indeed, he thinks that a number of attempts to avoid the Big Bang were probably motivated by the feeling that a beginning of time “smacks of divine intervention.”{40} He sees his own model as preferable to the Standard Model because there would be no edge of space-time at which one “would have to appeal to God or some new law.”{41}

[…]The question which arises for this construal of the model is whether such an interpretation is meant to be taken realistically or instrumentally. On this score, there can be little doubt that the use of imaginary quantities for time is a mere mathematical device without ontological significance. Barrow observes, “physicists have often carried out this ‘change time into space’ procedure as a useful trick for doing certain problems in ordinary quantum mechanics, although they did not imagine that time was really like space. At the end of the calculation, they just swop [sic] back into the usual interpretation of there being one dimension of time and three . . . dimensions of . . . space.”{48} In his model, Hawking simply declines to re-convert to real numbers. If we do, then the singularity re-appears. Hawking admits, “Only if we could picture the universe in terms of imaginary time would there be no singularities . . . . When one goes back to the real time in which we live, however, there will still appear to be singularities.”{49} Hawking’s model is thus a way of re-describing a universe with a singular beginning point in such a way that that singularity is transformed away; but such a re-description is not realist in character.

Quantum gravity is a theoretical model that uses imaginary time. When translated back into the real world, the singularity re-appears, and the need for a cause of the universe coming into being is re-asserted.

Natalie explains how strong her speculation really is:

Another way to put it is that contemporary physics theories, though still under development and awaiting future experimental testing, are turning out to be capable of explaining why Big Bangs occur, without the need for a supernatural jumpstart. As Alex Filippenko, an astrophysicist at the University of California, Berkeley, said in a conference talk earlier this year, “The Big Bang could’ve occurred as a result of just the laws of physics being there. With the laws of physics, you can get universes.”

See? Their view is “just because theists have all the experimental data for a creation out of nothing today, that doesn’t mean that these speculative theories won’t replace that  hard evidence tomorrow”. But physical laws are descriptions of how matter behaves – they don’t bring matter into being out of nothing. Physical laws can’t explain the origin of the universe because they don’t even exist until there is matter created for them to describe. Even the New York Times knows that. But that what atheists are reduced to – they deny what you can test in a lab, and hope for things to emerge that have never been tested in a lab. That’s atheism.

The evidence for a finely-tuned universe

What does she make of the fine-tuning evidence? Well, she has a speculation to answer the experimental evidence there as well.

She writes:

But there are other potential grounds for God. Physicists have observed that many of the physical constants that define our universe, from the mass of the electron to the density of dark energy, are eerily perfect for supporting life. Alter one of these constants by a hair, and the universe becomes  unrecognizable. “For example, if the mass of the neutron were a bit larger (in comparison to the mass of the proton) than its actual value, hydrogen would not fuse into deuterium and conventional stars would be impossible,” Carroll said. And thus, so would life as we know it.

Theologians often seize upon the so-called “fine-tuning” of the physical constants as evidence that God must have had a hand in them; it seems he chose the constants just for us. But contemporary physics explains our seemingly supernatural good luck in a different way.

Some versions of quantum gravity theory, including string theory, predict that our life-giving universe is but one of an infinite number of universes that altogether make up the multiverse. Among these infinite universes, the full range of values of all the physical constants are represented, and only some of the universes have values for the constants that enable the formation of stars, planets and life as we know it. We find ourselves in one of the lucky universes (because where else?).

A speculative multiverse? Why should we take a speculative multiverse over one observable, knowable experimentally-testable universe?

Let’s see what the peer-reviewed science says:

The feebleness of gravity is something we should be grateful for. If it were a tiny bit stronger, none of us would be here to scoff at its puny nature.

The moment of the universe‘s birth created both matter and an expanding space-time in which this matter could exist. While gravity pulled the matter together, the expansion of space drew particles of matter apart – and the further apart they drifted, the weaker their mutual attraction became.

It turns out that the struggle between these two was balanced on a knife-edge. If the expansion of space had overwhelmed the pull of gravity in the newborn universe, stars, galaxies and humans would never have been able to form. If, on the other hand, gravity had been much stronger, stars and galaxies might have formed, but they would have quickly collapsed in on themselves and each other. What’s more, the gravitational distortion of space-time would have folded up the universe in a big crunch. Our cosmic history could have been over by now.

Only the middle ground, where the expansion and the gravitational strength balance to within 1 part in 1015 at 1 second after the big bang, allows life to form.

That’s what the science says. That’s what we know from experiments.

An MIT physicist Alan Lightman explains how much evidence there is for the multiverse:

The… conjecture that there are many other worlds… [T]here is no way they can prove this conjecture. That same uncertainty disturbs many physicists who are adjusting to the idea of the multiverse. Not only must we accept that basic properties of our universe are accidental and uncalculable. In addition, we must believe in the existence of many other universes. But we have no conceivable way of observing these other universes and cannot prove their existence. Thus, to explain what we see in the world and in our mental deductions, we must believe in what we cannot prove.

Sound familiar? Theologians are accustomed to taking some beliefs on faith. Scientists are not. All we can do is hope that the same theories that predict the multiverse also produce many other predictions that we can test here in our own universe. But the other universes themselves will almost certainly remain a conjecture.

This is a non-theistic scientist telling us this. There is no evidence for the multiverse, just like there is no evidence for Santa Claus, just like there is no evidence for the Tooth Fairy. Yet atheists are driven to speculate about whether Santa Claus and the Tooth Fairy might be real, in order to escape the fine-tuning. And atheism just goes on and on and on like this – from the origin of life’s building blocks, to junk DNA, to the Cambrian explosion, to protein synthesis, to galactic habitability, to DNA sequences, and so on – it’s madness stacked on top of delusion stacked on top of insanity. It’s just speculative nonsense and the denial of today’s cutting-edge peer-reviewed experimental evidence.

What is causing them to do this? What is their motivation for wanting atheism to be true?

UPDATE: A response from Uncommon Descent.