Changes

=== Humphreys' model ===

=== Humphreys' model ===

In 1994 Dr. [[Russell Humphreys]] proposed a new cosmology<ref>Batten et. al., 2007, p.90, Humphreys, 1994</ref> that includes a bounded universe with a center and an edge, that God had created 6,000 years ago as a much smaller body than today, then stretched it out, making it much larger.

In 1994 Dr. [[Russell Humphreys]] proposed a new cosmology<ref>Batten et. al., 2007, p.90, Humphreys, 1994</ref> that includes a bounded universe with a center and an edge, that God had created 6,000 years ago as a much smaller body than today, then stretched it out, making it much larger.

In Humphreys' model, because the universe has a center and an edge (unlike the unbounded model of the Big Bang universe), the center of the universe is also the center of a [[gravity well]], meaning that gravity is stronger at the center of the universe than at the edge.

In Humphreys' model, because the universe has a center and an edge (unlike the unbounded model of the big bang universe), the center of the universe is also the center of a [[gravity well]], meaning that gravity is stronger at the center of the universe than at the edge.

As gravity can affect the rate at which time passes, he calculated that while the six days of [[creation week]] were passing on Earth, billions of years' of time was passing at the edge of the universe.

As gravity can affect the rate at which time passes, he calculated that while the six days of [[creation week]] were passing on Earth, billions of years' of time was passing at the edge of the universe.

==Starlight Problem for the Big Bang Theory==

==Starlight Problem for the Big Bang Theory==

Despite the use of the Starlight Problem in arguing against young-Earth creationism, the [[Big Bang Theory]] has its own light travel problem, known as the horizon problem.

Despite the use of the Starlight Problem in arguing against young-Earth creationism, the [[big bang theory]] has its own light travel problem, known as the horizon problem.

The Big Bang model proposes that the temperature of the [[Cosmic Microwave Background]] (CMB) would have varied considerably from place to place early in the universe, yet because the speed at which this radiation can disperse from hotter to colder parts of the universe is limited by the speed of light, there has not been enough time for the radiation to even out, yet observations today show it to be extremely uniform<ref name="Lisle">Lisle, 2003</ref> (with fluctuations at the part-per-million level<ref>[http://map.gsfc.nasa.gov/m_uni/uni_101Flucts.html Fluctuations in the Cosmic Microwave Background]</ref>).

The big bang model proposes that the temperature of the [[Cosmic Microwave Background]] (CMB) would have varied considerably from place to place early in the universe, yet because the speed at which this radiation can disperse from hotter to colder parts of the universe is limited by the speed of light, there has not been enough time for the radiation to even out, yet observations today show it to be extremely uniform<ref name="Lisle">Lisle, 2003</ref> (with fluctuations at the part-per-million level<ref>[http://map.gsfc.nasa.gov/m_uni/uni_101Flucts.html Fluctuations in the Cosmic Microwave Background]</ref>).

{{QuoteBox|The problem is this: even assuming the big bang timescale, there has not been enough time for light to travel between widely separated regions of space. So, how can the different regions of the current CMB have such precisely uniform temperatures if they have never communicated with each other? This is a light-travel–time problem.<ref name="Lisle" />}}

{{QuoteBox|The problem is this: even assuming the big bang timescale, there has not been enough time for light to travel between widely separated regions of space. So, how can the different regions of the current CMB have such precisely uniform temperatures if they have never communicated with each other? This is a light-travel–time problem.<ref name="Lisle" />}}