@parados,
parados wrote:Where is the math you promised?
We have not come up to the math yet - before that we will have to define the formal model of conceptualization of the process.
So and so we will never be able to define the Big Bang & the Singularity, what we can define however is the present day Universe as we know (and don't know) it.
We have the tuple (KM, KE, DM, DE, STR)
KM - is the space of the known matter, and the elements of this space are km = [type of matter (elementary particles?!)]; KE - is the space of the known energy, and the elements of this space are ke = [type of energy(kinetic, potential, etc.)]; DM - is the space of the dark matter, and the elements of this space are dm = [type of dark matter]; DE - is the space of the dark energy, and the elements of this space are de = [type of dark energy]; STR - is the space of the structures (chemical elements, chemical compounds, geological structures, planets, satellites, star systems, galaxies, etc.), and any element of the structures has the form str = [[type of matter],[type of energy],[type of dark matter],[type of dark energy], [information]]; Time is a special case of structure - it has no matter, no energy, no dark matter, no dark energy, but it has only the [Information] component, so we define Time as T = {Tstr: str [[],[],[],[],[Inf]] Є STR]. With that model you can describe everything you have at present, the problem is how you will describe it onto the moment of the Big Bang.
Onto BBT we have the tuple (UDS1, UDS2 ... UDSn, T[]); UDSi - undefined set of undefined variables; T[] - non-existence of time. If we assign to Singularity = (UDS1, UDS2 ... UDSn, T[]) we will have to find all the functions and transformations that could convert (UDS1, UDS2 ... UDSn, T[]) → (KM, KE, DM, DE, STR). You will have to use here all the knowledge of physics and QMs to specify the transformations, otherwise the formal model will hang up into the air, without any physical and plausible interpretation. The math is in the '→'.