Strong nuclear force constant
Weak nuclear force constant
Gravitational force constant
Electromagnetic force constant
Of these first four, only gravity is potentially independent according to current scientific knowledge. At sufficient energy levels, the electromagnetic force and weak nuclear force are indistinguishable and have been given the name
electroweak force. This has been known for decades and, indeed, several physicists received a Nobel prize for their work on it in 1979.
As yet, there is no widely accept unification of the strong nuclear force with electroweak force althouth
several models have been proposed which are all mathematically consistent. Unfortunately, the forces are only supposed to unify above 100 GeV which we cannot yet attain.
Ratio of electromagnetic force constant to gravitational force constant
And here the duplicity really begins. For reference, the electromagnetic force is on the order of 10
42 times stronger than gravity. No the constant is not exactly known, because we have not calculated either the electromagnetic constant or the gravitational constant to the requisite 42 decimal places.
At any rate, the ratio is unimportant unless "Dr" Ross wishes to propose somehow a shift of 42 orders of magnitude because the ratio is only important at the atomic level.
In essence, what he is proposing by regarding the constant as fixed and invariant is that gravity MUST be weak lest matter condense into a superdense agglomeration. This ignores the theoretical pre-inflationary time where all matter WAS just such a superdense agglomeration. It expanded, energy levels dropped, baryons formed. Live with it doc.
Ratio of proton to electron mass
I'm not up on quantum chromodynamics but I do know that the rest mass of the proton is much higher than that of its constituent quarks. High energy gluons (thanks Wikipedia!) exchanged between the quarks make up most of the mass of the proton and hence the mass of a proton is almost completely determined by the strong nuclear force constant.
Electrons are, of course, a fundamental particle not composed of anything smaller (that we know of). Thus, the ratio of proton to electron mass is directly determined by the strong nuclear force constant and is thus constrained.
It would be similar to a biologist claiming femur length and quadricep length were not linked somehow.
Ratio of number of protons to number of electrons
By this, Ross wants to imply that if the number were significantly imbalanced then large objects could not accrete due to gravity. It's a restatement of the "ratio of electromagnetic force to gravitational force" above when you consider local structures eg. the Sun.
However, there is no known reason why there should be a net equivalency (or indeed any particular ration whatsoever) between the number of protons and the number of electrons. Any ratio that is determined implies precisely nothing.
PS the universe is largely ionised...
Ratio of proton to electron charge
And if this ration weren't 1:1 then the subatomic structure of protons would be different which would mean that the strong nuclear force were different. Given that our best models so far do tend to link strong, weak & electromagnetic forces, that linkage almost certainly defines the above ratio.
Expansion rate of the universe
Others have pointed out that there is no necessarily fixed value for this rate. A different rate has different implications for spacetime but, as various theories DO in fact propose different rates yet none of them poof us out of existence, I'll go ahead and state that the value for this rate can take on quite a large range.
Mass density of the universe
*yawn* E = mc
2First law of thermodynamics
Expansion rate determines energy density & thus mass density.
This "value" is precisely equivalent to the one above.
Baryon (proton and neutron) density of the universe
So the good doctor has solved the problem of CP violation and baryon assymetry?
The standard model predicts that there should be no matter in the universe since particles & antiparticles should be equal in quantity. There is an imbalance, on the order of 1 in 30 billion which has given rise to all of the observed matter in the universe.
However, it is not yet known if that number is some fundamental constant (highly unlikely) or if it a result of some, as yet unknown, interaction between particles at energies which we cannot generate.
Space energy or dark energy density of the universe
The good doctor really needs to first determine if there is actually any dark matter or dark energy before expounding on the need for a value for same.
The need for dark matter is directly tied to our understanding of gravity which, since we do not yet have a grand unified theory of all fundamental forces, is necessarily incomplete. Declaring that the value for dark matter/energy is thus fixed is vastly premature.
Ratio of space energy density to mass density
Didn't we cover this above? I'm sure Einstein had some sort of equation which linked mass & energy.
Entropy level of the universe
Obviously not a constant since entropy is always increasing.
Velocity of light
This was addressed above. It appears the good doctor cannot even get basic terminology correct.
Furthermore, it is a basic consequence of the Heisenberg uncertainty principle that light can, er, travel faster than light for extremely small periods of time. It could also move slower.
Age of the universe
Utterly irrelevant and getting more irrelevant by the second.
Uniformity of radiation
Homogeneity of the universe
An expanding universe will necessarily achieve both of the above. It's honestly not hard to perform the requisite thought experiment to determine that it is so.
Average distance between galaxies
Average distance between galaxy clusters
Average distance between stars
Average size and distribution of galaxy clusters
Numbers, sizes, and locations of cosmic voids
None of the above have any bearing given that the universe is homogenous. Again, the requisite thought experiment is not hard. Local variations may exist but again, are not relevant. Unless you happen to live in one of those local variations!
Electromagnetic fine structure constant
And this is the ratio of a whole heap of other constants, most of which have been discussed above. To say that this is free to vary implies that one or more of the other constants are free to vary. Perhaps the good doctor would be so kind as to tell us which one that is?
Gravitational fine-structure constant
It's the Gravitational Coupling Constant btw and again it is the ratio of several other constants.
Decay rate of protons
If you want to suggest that protons decay then you also have to accept that the strong, weak & electromagnetic forces are all manifestations of a single unified force. This does not help Ross' argument at all.
Ground state energy level for helium-4
Carbon-12 to oxygen-16 nuclear energy level ratio
Decay rate for beryllium-8
Determined by the strong nuclear force via quantum chromodynamics and thus not free to vary unless the fundamental constant is also varied.
Ratio of neutron mass to proton mass
Not free to vary - determined by interactions between their constituent quarks. To propose that the values could be any different, Ross must propose that 2u1d quarks do not make up a proton & 1u2d quarks do not make up a neutron.
Initial excess of nucleons over antinucleons
There is no evidence for such an initial excess. We've covered this in baryon density above.
Polarity of the water molecule
Um, hydrogen is less positively charged than oxygen? Duh!
To think that this could be different is to propose that H
2O does not make water.
Epoch for hypernova eruptions
Number and type of hypernova eruptions
Epoch for supernova eruptions
Number and types of supernova eruptions
Epoch for white dwarf binaries
Density of white dwarf binaries
All of the above are a function of the Main Sequence of stars which itself is a function of Carbon-Nitrogen-Oxygen fusion cycle which is a function of the strong nuclear force and gravity. The values are thus not free to vary.
Ratio of exotic matter to ordinary matter
Prove exotic matter exists first.
Number of effective dimensions in the early universe
Number of effective dimensions in the present universe
So now we're on to string theory? It's lovely how he mixes & matches the Standard Model with string theory as he sees fit, even though the two have not been reconciled.
Mass values for the active neutrinos
Number of different species of active neutrinos
Number of active neutrinos in the universe
All directly proportional to the decay rate of the Z boson. If Ross would like to propose that the decay rate an vary then he has a huge problem on his hands. This is because the Z boson is one of the mediators of the weak nuclear force and a longer decay time would mean that the weak nuclear force would act over distances greater than a single nucleus.
Mass value for the sterile neutrino
Number of sterile neutrinos in the universe
Prove they exist first. This has not yet been demonstrated.
Decay rates of exotic mass particles
Prove they exist first.
Magnitude of the temperature ripples in cosmic background radiation
Directly proportional to, and consistent with, the random fluctuations in a very hot gas expanded to the size of the universe.
Size of the relativistic dilation factor
Proportional to the speed of light. Ross is really stretching here.
Magnitude of the Heisenberg uncertainty
Hint: that's why they call it quantum theory. If you want the magnitude of the uncertainty to be smaller, propose a smaller fundamental particle set and solve all of the requisite equations.
Quantity of gas deposited into the deep intergalactic medium by the first supernovae
Directly proportional to the gravitational constant.
Positive nature of cosmic pressures
Positive nature of cosmic energy densities
We talked about the value for the expansion of the universe above already. There is currently expansion - this may change.
Density of quasars
Gravity again!
Decay rate of cold dark matter particles
Relative abundances of different exotic mass particles
Degree to which exotic matter self interacts
Prove they exist.
Epoch at which the first stars (metal-free pop III stars) begin to form
Epoch at which the first stars (metal-free pop III stars cease to form
Number density of metal-free pop III stars
Average mass of metal-free pop III stars
Epoch for the formation of the first galaxies
Epoch for the formation of the first quasars
Much like the earlier Gish Gallop on epocs, all of these can be traced back to interactions between the strong nuclear force & gravity.
Amount, rate, and epoch of decay of embedded defects
Perturbations in the cosmic background radiation are consistent with random fluctuations in the expansion of a very hot gas. Embedded defects are just such fluctuations writ large.
Ratio of warm exotic matter density to cold exotic matter density
Ratio of hot exotic matter density to cold exotic matter density
Prove they exist first.
Level of quantization of the cosmic spacetime fabric
Explaining this requires explaining the entirety of quantum mechanics. If it is free to vary, quantum mechanics is wrong and must be replaced. Is Ross seriously proposing that?
Flatness of universe's geometry
Space time curvature is determined by whether or not the universe is open or closed. This has not yet been determined and may change - see above on expansion of the universe.
Average rate of increase in galaxy sizes
Change in average rate of increase in galaxy sizes throughout cosmic history
Um, galaxy size doesn't increase. This is obvious from a simple thought experiment.
- if the universe is expanding then there is less local matter to accrete into a galaxy
- core clusters of galaxies tend to form supermassive black holes which will tend to reduce overall size
Constancy of dark energy factors
Epoch for star formation peak
Location of exotic matter relative to ordinary matter
More repetition of above
Strength of primordial cosmic magnetic field
*cough* electroweak *cough*
Level of primordial magnetohydrodynamic turbulence
This one I have no clue about sorry.
Level of charge-parity violation
As CP violations cannot currently account for the abundance of baryonic matter, this value has not yet been demonstrated to be fundamental.
Number of galaxies in the observable universe
Another one along the lines of "if things were different then things would be different".
Polarization level of the cosmic background radiation
Proportional to the gravitational constant...
Date for completion of second reionization event of the universe
I've seen 10
77 years in the future for this but seen as high as 10
200 years. A cosmic phase transition is theoretically possible but it hardly has any bearing on life. This is because, for such an event to occur, protons must decay and thus all baryonic matter would be gone before it happened.
Date of subsidence of gamma-ray burst production
Relative density of intermediate mass stars in the early history of the universe
Yet more repeats.
Water's temperature of maximum density
Water's heat of fusion
Water's heat of vaporization
Didn't we cover polarisation of water up above somewhere?
Number density of clumpuscules (dense clouds of cold molecular hydrogen gas) in the universe
Average mass of clumpuscules in the universe
Location of clumpuscules in the universe
And again, more repetition. Random fluctuations + gravity explain this.
Dioxygen's kinetic oxidation rate of organic molecules
Chemstry??? Please - did he think we'd miss this?
Level of paramagnetic behavior in dioxygen
I have no clue why he thinks this is important. Perhaps someone can help out.
Density of ultra-dwarf galaxies (or supermassive globular clusters) in the middle-aged universe
We've covered this enough already.
Degree of space-time warping and twisting by general relativistic factors
Speed of light...
Percentage of the initial mass function of the universe made up of intermediate mass stars
Um, zero? How can stars exist when there are no baryons?
[quote]Strength of the cosmic primordial magnetic field
Direct repeat of a term above.
........................................
Overall, the vast majority of the values proposed for fine tuning depend on a very small number of constants. So, while the list may look impressive, there really aren't all that many truly fundamental constants:
1. Gravitational constant
2. Speed of light in a vacuum
3. Electroweak-strong force (if the theories are correct. If they aren't, protons don't decay)
4. Plank constant (related to quantisation of space-time)
5. Fundamental charge of an electron/proton (only since free quarks have not been found and are postulated not to exist)
That's all I can think of right now, I'm sure I've missed some. It's a long way short of 93 though.
"He who begins by loving Christianity more than Truth, will proceed by loving his sect or church better than Christianity, and end in loving himself better than all."
Samuel Taylor Coleridge 1772-1834