alter ego of time

[AntonioLao]

The alter ego of time, not surprisingly, is the temperature. One reason for this physical assertion is based on certain definition of entropy as measured in a isolated thermodynamics system where and when neither mass nor energy passes the system boundary. Anther compelling reason is the experimental verification of the speed of light as measured in the false vacuum of constant refractive index. The true vacuum is reserved for the physical description of the quantum space-time as squares of energy represented by binary operational mathematics of Hadamard matrices.

According to popular cosmological theories, the universe begins at time zero with infinite temperature. The cooling processes allow the formation of stars and galaxies. Subsequently, the emergence of planets and living things as the universe gets older. This astrophysical fact alone suggests that time (t) and temperature (T) are inversely proportional such that the product tT=K where K is the constant of proportionality. The next physical objective is to determine the one or many absolute or relative values of K. But as finite relative beings living in an absolute universe the best data collected will downright be of relative values. On the other hand, the single absolute value can be mindfully assumed. In this context, the absolute value of K is 0, 1, or -1. In the following only for the case K=0 will be discussed.

K=0, for this to be true either t or T must be zero but not simultaneously. Moreover, each must be the factor of differentiable functions of at least of single independent variable. This single parameter can be the 1st or 2nd power of energy: E or E giving four distinct differentiated functions: t(E), T(E), t(E), and T(E). If the quantum uncertainty ∆E∆t≥h and Boltzmann’s equipartition theorem Ē=kT for average energy respectively substituted into t(E) and T(E) and defining ∆E=E-e and Ē=½(E+e) where E is maximum energy and e is minimum energy then both Planck’s and Boltzmann constants dropped out. The simplified equation is (E+e)/(E-e)=0 implying E=-e either at t=0 or T=0. However, multiplying the numerator and denominator by (E-e) gives E-e or E=e. The first implies negative energy the second the integrability of squares of energy (e.g. the total relativistic energy: E=cp+mc). On the other hand, both t(∆E), and T(Ē) give degenerate solutions.

The lay implication is that the hotter one gets the younger one becomes. The colder one gets the older one becomes. Since a photon as a particle of light has no rest mass, it is always in a state of pure energy and relatively hot for varying frequencies. The higher the frequency the more energy is stored within the photon. Since frequency is inversely proportional to the period of the wave characteristic of the photon, higher energy photons tend to live longer before being absorbed by the surrounding interacting matter. Low energy photon of infrared frequencies or lower radio frequencies can be absorbed by matter. The former as heat waves the latter as radio waves for communications. However, both high and low energy photons always travel at the same speed of light in the false vacuum of constant refractive index. A simplified definition of entropy change (∆S) is the ration of change in heat energy (∆Q) over the absolute temperature (T): ∆S=∆Q/T. Since ∆S is always positively increasing according to the second law of thermodynamics for an isolated system, it implies an arrow of time or equivalently ∆S~∆t then ∆tT=∆Q is generally covariant with tT=K mentioned earlier.

[mkirkpatrick]

Temperature is an odd thing,what exactly does it measure?
How hot or cold a "thing" is,can you be in a state of temperatureless? Where there is no detectable coldness
or hotness,there just IS?



regards michael.

[AntonioLao]

what exactly does it measure?

It can be used to measure the flow of time. Temperatureless existence implies absolute rest. This is usually called the thermodynamic state of absolute zero. Unfortunately, absolute rest or absolution motion cannot be detected by experiments. Researches to reach absolute zero of temperature have all been boiled away.

[mkirkpatrick]

It can be used to measure the flow of time. Temperatureless existence implies absolute rest. This is usually called the thermodynamic state of absolute zero. Unfortunately, absolute rest or absolution motion cannot be detected by experiments. Researches to reach absolute zero of temperature have all been boiled away.

Absolute rest comes when we fully realize we are ubiquitous and absolute,then motion is no more.


regards michael.

[AntonioLao]

Time stops at the exact point of absolute rest as in a state of directional invariance. As a person that is all dressed up but no place to go.

[mkirkpatrick]

Time stops at the exact point of absolute rest as in a state of directional invariance. As a person that is all dressed up but no place to go.

By then though Antonio you are ominipresent so where
could you possibly go to where you were not already
present at?



regards michael.

[AntonioLao]

But could you still think that the grass is greener on the other side? Absolute rest could still be a state of everlasting dissatisfaction of wanting to gravitate everything else inward to the center analogous to what a black hole is. But according to Stephen Hawking if the BH gains mass it will eventually radiate and transform into a brown hole.

[mkirkpatrick]

But could you still think that the grass is greener on the other side? Absolute rest could still be a state of everlasting dissatisfaction of wanting to gravitate everything else inward to the center analogous to what a black hole is. But according to Stephen Hawking if the BH gains mass it will eventually radiate and transform into a brown hole.

I promise to let you know if I think about greener grass
when I arrive there,thats if "you" still exist then?



regards michael.

[AntonioLao]

We exist in a space and in a time all the time but not always at the same place and the same time.

[SteveA]

The alter ego of time, not surprisingly, is the temperature.

Yes, that's another one that requires time to measure if we decompose temperature into a collection of smaller motions - if we leave temperature as a single subjective qualitative measurement, then all these motions become a single measurable object that doesn't need smaller events to construct (so we could see temperature as an inverse construction of a linear perception of temperatures).