So, I got to the point where it states the wiggle room for these first handful of constants. While the source would suggest otherwise, that is actually way more wiggle room than I ever thought possible. Fine tuned my foot, that is a lot of potential variables
Really? Most scientists would disagree:
in terms of the tolerance permitted, this example pales into insignificance when we consider the fineness of the tuning of some of the other parameters in nature. Theoretical physicist Paul Davies tells us that, if the ratio of the nuclear strong force to the electromagnetic force had been different by 1 part in 1016, no stars could have formed. Again, the ratio of the electromagnetic force-constant to the gravitational force-constant must be equally delicately balanced. Increase it by only one part in 1040 and only small stars can exist; decrease it by the same amount and there will only be large stars. You must have both large and small stars in the universe: the large ones produce elements in their thermonuclear furnaces; and it is only the small ones that burn long enough to sustain a planet with life. To use Davies illustration, that is the kind of accuracy a marksman would need to hit a coin at the far side of the observable universe, twenty billion light years away.
[2] If we find that difficult to imagine, a further illustration suggested by astrophysicist Hugh Ross may help.
[3] Cover America with coins in a column reaching to the moon (380,000 km or 236,000 miles away), then do the same for a billion other continents of the same size. Paint one coin red and put it somewhere in one of the billion piles. Blindfold a friend and ask her to pick it out. The odds are about 1 in 1040 that she will.
Although we are now in realms of precision far beyond anything achievable by instrumentation designed by humans, the cosmos still has more stunning surprises in store. It is argued that an alteration in the ratio of the expansion and contraction forces by as little as 1 part in 1055 at the Planck time (just 10-43 seconds after the origin of the universe), would have led either to too rapid expansion of the universe with no galaxies forming or to too slow an expansion with consequent rapid collapse.
[4]
Extract from ?God?s undertaker: has science buried God?? by John Lennox
For example, take the Cosmological constant. If this constant were changed in its value by just 1 part in 10120 parts, the universe would expand either too rapidly or too slowly. In either case, the universe would be life-prohibiting.
Another example is the mass and energy of the early universe. If it were not evenly distributed to an incomprehensible precision of 1 part in 1010123 parts (note that that is 10 to the power of 10
to the 123rd power!), the universe would not be hospitable to life.